Master\u2019s Degree in Neuroscience \u2013 Two Year Duration
\nMany master\u2019s programs in neuroscience offer both a thesis-based degree with a requirement of a laboratory research project, and a non-thesis degree program requiring more extensive coursework and the writing of a review of neuroscience literature. Students who choose to continue graduate training after earning their master\u2019s degree can have their credits applied to the doctoral program.

\n

Doctoral Degree in Neuroscience \u2013 Five Year Duration
\nThe doctoral program in neuroscience involves essentially the same coursework as the master\u2019s program, but has a more intensive research component. After defending their dissertation, doctoral graduates often go on to postdoctoral work at research institutions.

\n

Both the master\u2019s and doctoral programs offer broad exposure to cellular, molecular, behavioral, developmental, and systems neuroscience, with emphasis on disease, injury, and therapeutics. Rigorous research training takes place through interactions with faculty, participation in scientific meetings, and training in scientific writing, teaching, formulation of hypotheses, and experimental design.

\n

These are examples of possible areas of research and concentrations:

\n

Spinal Cord and Brain Injury
\n- Neuroplasticity \u2013 the brain\u2019s ability to reorganize itself by forming new neural connections to compensate for injury and disease
\n- Axon regeneration \u2013 an axon is the long threadlike part of a nerve cell along which impulses are conducted from the cell body to other cells
\n- Cellular transplantation \u2013 examples: stem cells, peripheral nerve bridges, fibroblasts
\n- Rehabilitation
\n- Central nervous system response to injury, including neuroinflammation
\n- Autonomic dysfunction \u2013 develops when the nerves of the autonomic nervous system (ANS) are damaged; the ANS is a control system that regulates bodily functions like heart rate, digestion, and urination
\n- Neuropathic pain
\n- Neuroprotective strategies
\n- Robotics and brain-machine interface
\n- Computational neuroscience and modeling
\n- Recovery of motor, sensory, and autonomic functions
\n- Microtubule-based therapies for augmenting nerve regeneration

\n

Cellular Neuroscience
\n- How axons grow, branch, and navigate during development
\n- How dendrites become different from axons \u2013 a dendrite is a short branched extension of a nerve cell along which impulses received from other cells are transmitted to the cell body
\n- How neurons migrate from their sites of origin to their final destinations in the developing brain
\n- Alzheimer\u2019s disease
\n- Hereditary spastic paraplegia
\n- ALS
\n- Autism spectrum disorders
\n- Gulf War illness
\n- HIV-AIDS
\n- Multiple sclerosis
\n- Parkinson\u2019s disease
\n- Spinal cord injury
\n- Traumatic brain injury

\n

Systems and Behavioral Neurobiology (the biological basis of behavior)
\n- Ingestive behavior \u2013 feeding and drinking
\n- Substance abuse
\n- Regulation of executive function \u2013 mental processes that enable us to plan, focus attention, remember instructions, and multitask
\n- Learning and memory
\n- Psychostimulant drugs and ADHD (attention deficit hyperactivity disorder)
\n- Stress, anxiety, and PTSD (post-traumatic stress disorder)
\n- Sleep and arousal
\n- Locomotion and neural networks
\n- Traumatic brain injury
\n- Schizophrenia
\n- Autism
\n- Parkinson\u2019s disease

\n

Neuroengineering (in combination with therapeutic approaches to brain and spinal cord injury and rehabilitation)
\n- Computational modeling of reflex systems and pattern generator controls of breathing and locomotion
\n- Development of spinal cord motor prostheses
\n- Development of cortical motor / sensory prostheses, brain-machine interfaces, and neurorobotics

", "display_order": 2, "created_at": "2019-08-29T17:56:35.613411-07:00", "updated_at": "2022-01-10T16:16:00.441317-08:00"}, {"degree_id": 30, "page": 1, "title": "Degrees Similar to Neuroscience", "summary_markdown": "**[Biomedical Engineering](/degrees/biomedical-engineering-degree/)** \r\nSimply stated, biomedical engineering uses engineering to solve health and medical problems. For example, a biomedical engineer might look for chemical signals in the body that warn of a particular disease or condition. \r\n\r\n**[Chemistry](/degrees/chemistry-degree/)** \r\nChemistry deals with identifying the substances that make up matter. Degree programs in chemistry focus on investigating these substances: their properties; how they interact, combine, and change; and how scientists can use chemical processes to form new substances. \r\n\r\n**[Computer Science](/degrees/computer-science-degree/)** \r\nThe field of computer science is focused on computer systems and how humans interact with them. Courses cover mathematics for computer science, artificial intelligence, data structures and algorithms, and introduction to program design. \r\n\r\n**[Linguistics](/degrees/linguistics-degree/)** \r\nLinguistics explores the nature of language variations and dialects, how language evolves over time, how it is processed and stored in the human brain, and how it is acquired. It is the scientific study of language and communication, both within a single language and across language groups. \r\n\r\nThe primary sub-areas of linguistics are phonetics \u2013 the study of the production, acoustics, and hearing of speech sounds; phonology \u2013 the patterning of sounds; morphology \u2013 the structure of words; syntax \u2013 the structure of sentences; semantics \u2013 meaning; and pragmatics \u2013 language in context. \r\n\r\n**[Molecular Biology](/degrees/molecular-biology-degree/)** \r\nDegree programs in molecular biology teach the composition, structure, and interactions of cellular molecules like nucleic acids and proteins that are essential to cell function.", "content_markdown": "**[Pharmacology](/degrees/pharmacology-degree/)** \r\nPharmacologists study how drugs and medicines work so they can be used in the right way. The work naturally involves an understanding of chemical and biological interactions. \r\n\r\n**[Philosophy](/degrees/philosophy-degree/)** \r\nPhilosophy encourages the asking of big questions and the formulation of arguments to attempt to answer them. Who are we? Why are we here? What do we believe? Why do we believe it? What is right and wrong in life? What is true and false? What is real and unreal? Philosophy is concerned with the nature of existence and knowledge. \r\n\r\n**[Psychobiology](/degrees/psychobiology-degree/)** \r\nPsychobiology is the interaction between biological systems and behavior. It is concerned with how what we think and what we feel combine with biological events. Research in the field covers topics such as how psychological stressors can impact the brain and behavior. An example is how an exam or job interview can cause heart palpitations. \r\n\r\n**[Robotics Technology](/degrees/robotics-technology-degree/)** \r\nDegree programs in robotics technology prepare students to work with engineers who design robots and robotic systems than can perform duties that humans are either unable or prefer not to perform.", "content_html": "

Pharmacology
\nPharmacologists study how drugs and medicines work so they can be used in the right way. The work naturally involves an understanding of chemical and biological interactions.

\n

Philosophy
\nPhilosophy encourages the asking of big questions and the formulation of arguments to attempt to answer them. Who are we? Why are we here? What do we believe? Why do we believe it? What is right and wrong in life? What is true and false? What is real and unreal? Philosophy is concerned with the nature of existence and knowledge.

\n

Psychobiology
\nPsychobiology is the interaction between biological systems and behavior. It is concerned with how what we think and what we feel combine with biological events. Research in the field covers topics such as how psychological stressors can impact the brain and behavior. An example is how an exam or job interview can cause heart palpitations.

\n

Robotics Technology
\nDegree programs in robotics technology prepare students to work with engineers who design robots and robotic systems than can perform duties that humans are either unable or prefer not to perform.

", "display_order": 3, "created_at": "2019-08-29T17:56:35.615512-07:00", "updated_at": "2022-01-10T16:18:16.399837-08:00"}, {"degree_id": 30, "page": 1, "title": "Skills You’ll Learn", "summary_markdown": "Graduates of neuroscience programs gain these transferrable skills through their course of study:\r\n\r\n- Abstract reasoning \r\n- Academic writing and presentation \r\n- Attention to detail \r\n- Awareness of ethical issues \r\n- Communication and interpersonal skills \r\n- Experiment design \r\n- Laboratory skills \r\n- Leadership and teamwork \r\n- Observation, investigation, and critical thinking \r\n- Organization and time management \r\n- Research and data analysis and interpretation \r\n- Summarizing vast amounts of information \r\n- Use of statistical tests in data analysis", "content_markdown": "", "content_html": "", "display_order": 4, "created_at": "2019-08-29T17:56:35.617566-07:00", "updated_at": "2022-01-10T16:14:48.988861-08:00"}, {"degree_id": 30, "page": 1, "title": "What Can You Do with a Neuroscience Degree?", "summary_markdown": "Because neuroscience combines aspects of many disciplines \u2013 from chemistry, medicine, and linguistics to mathematics, computer science, and engineering \u2013 graduates of the field find themselves working in a surprisingly wide array of areas. Many choose to go to medical school and become a physician or surgeon. \r\n \r\nBelow are the most common occupational categories in neuroscience. Some roles require further education and/or additional specialized training. \r\n\r\n**Research and Teaching** \r\n- Clinical / Medical \r\n- Academic / University \r\n- Biotechnology \r\n- Pharmaceutical / Drug Development \r\n\r\n**Healthcare and Social Services** \r\n- Neuropsychology / Psychology \r\n- Neuroimaging / Brain Imaging \r\n- Neurology \r\n- Neurosurgery \r\n- Neuropsychiatry / Psychiatry \r\n- Occupational Therapy \r\n- Physical Therapy \r\n- Speech-Language Pathology \r\n- Substance Abuse and Behavioral Disorder Counseling \r\n\r\n**Government** \r\n- Regulatory Affairs \r\n- Policy \r\n- Research Administration \r\n\r\n**Writing and Publishing** \r\n- Scientific Journalist / Blogger / Editor \r\n- Creative writing about the brain \u2013 for children or adults \r\n\r\n**Creative Sector** \r\n- Developer of toys for brain development", "content_markdown": "", "content_html": "", "display_order": 5, "created_at": "2019-08-29T17:56:35.619651-07:00", "updated_at": "2022-01-10T16:14:49.016852-08:00"}], "degree_specializations": []}">

什么是神经科学学位?

神经系统科学家研究人类大脑和神经系统的结构和功能,以及它们如何影响行为。神经科学领域借鉴了生物学、生物化学、生理学、心理学、免疫学、物理学、数学和计算机科学的原理。

因此,神经科学学位课程反映了这种多学科性质。在研究生阶段,项目包括神经障碍的研究,损伤对大脑的影响,神经治疗和康复的方法。

程序选项

神经科学学士学位-四年学制
本科专业为学生提供通过基础神经科学课程获得的基础知识;基础生物、化学和物理;基础数学、计算机科学和统计学;以及框架研究方法。一些学校提供神经科学五年制的加速联合学士和硕士学位。

以下是典型的四年制神经科学学士课程概述:

  • 《大脑》——介绍大脑如何工作;神经解剖学,感觉和运动系统,语言和学习
  • 神经元-神经元(单个脑细胞)如何工作,神经编码,神经电路结构和功能
  • 实验室普通生物学-从原子、分子和细胞器(在细胞中有一种或多种特定工作的亚细胞结构)到细胞组织层次的生命;细胞结构与功能、能量学与代谢、基因、分子遗传学与进化;通过研究微生物、植物和动物的科学方法和实验
  • 普通化学与实验室。原子结构;化学反应;热量的变化;原子的电子结构;分子几何;液体,固体,气体和溶液化学
  • 有机化学与实验室-碳氢化合物,化合物,醇,酸,及其衍生物
  • 一般物理与实验室-运动和力,牛顿定律,动量,能量,引力,流体,物质的性质,和热力学
  • 微积分——积分学的基本定理,关于变化率的研究
  • 大脑和行为科学的计算方法——计算机如何在神经科学研究中使用,基本的编程技能,如何使用神经科学中的软件分析和报告科学数据
  • 基础统计-使用统计软件分析真实数据,并提出和研究概念
  • 认知神经科学与实验室-探索复杂的认知行为,包括注意、物体识别、记忆、认知控制、社会认知和语言;认知神经科学研究方法;行为范式、临床方法、脑电图(EEG)、神经成像(MRI)和神经调节(通过直接向目标区域输送电子或药物制剂来改变或调节神经活动)的设计
  • 实验室行为神经科学-与自然行为相关的神经机制,包括交流、学习、记忆、睡眠、进食和应激反应
  • 研究方法和专业技能——神经科学和实验心理学领域的专业技能和职业道路;科学写作和科研拨款写作;找工作
  • 实验室细胞生物学-真核细胞(细胞核周围有核膜的细胞)的结构和功能
  • 实验室遗传学。基因传播模式;基因结构、功能、相互作用和突变;染色体;生化遗传学;群体遗传学
  • 人类神经心理学基础——人类大脑的结构、组织和功能,以及它如何产生思想、感觉、动作、知觉、语言和记忆;大脑功能正常,神经系统紊乱
  • 行为的进化——从生态学和进化的角度探讨动物和人类的行为涵盖的主题包括攻击性、语言、性别差异、智力、发展、学习和本能
  • 神经科学独立研究-顶点项目

神经科学硕士学位-为期两年
许多神经科学硕士课程既提供要求实验室研究项目的论文学位,也提供要求更广泛的课程学习和神经科学文献综述写作的非论文学位。选择在获得硕士学位后继续研究生培训的学生可以将他们的学分申请到博士项目。

神经科学博士学位-为期五年
神经科学博士课程与硕士课程基本相同,但有更密集的研究部分。在完成论文答辩后,博士毕业生通常会继续在研究机构从事博士后工作。

硕士和博士课程都提供广泛的细胞、分子、行为、发育和系统神经科学的接触,强调疾病、损伤和治疗学。严格的研究培训通过与教师的互动、参与科学会议、科学写作、教学、假设的制定和实验设计的培训来进行。

以下是可能的研究和重点领域的例子:

脊髓和脑损伤

  • 神经可塑性——大脑通过形成新的神经连接来重新组织自己的能力,以补偿损伤和疾病
  • 轴突再生-轴突是神经细胞的长线状部分,沿着它脉冲从细胞体传导到其他细胞
  • 细胞移植-例如:干细胞,周围神经桥,成纤维细胞
  • 康复
  • 中枢神经系统对损伤的反应,包括神经炎症
  • 自主神经功能障碍-当自主神经系统(ANS)的神经受损时发展;ANS是调节心率、消化和排尿等身体功能的控制系统
  • 神经性疼痛
  • 神经保护策略
  • 机器人和脑机接口
  • 计算神经科学与建模
  • 运动、感觉和自主功能的恢复
  • 增强神经再生的微管基础疗法

细胞神经科学

  • 轴突在发育过程中是如何生长、分支和导航的
  • 树突与轴突的区别是什么?树突是神经细胞的一种短分支延伸,通过它从其他细胞接收到的脉冲传递到细胞体
  • 在发育中的大脑中,神经元是如何从起始点迁移到最终目的地的
  • 阿尔茨海默病
  • 遗传性痉挛性截瘫
  • 肌萎缩性侧索硬化症
  • 自闭症谱系障碍
  • 海湾战争病
  • 艾滋病
  • 多发性硬化症
  • 帕金森病
  • 脊髓损伤
  • 创伤性脑损伤

系统与行为神经生物学(行为的生物学基础)

  • 摄食行为——进食和饮水
  • 药物滥用
  • 执行功能的调节——使我们能够计划、集中注意力、记住指示和多任务的心理过程
  • 学习与记忆
  • 精神兴奋剂药物和注意力缺陷多动障碍
  • 压力、焦虑和创伤后应激障碍(PTSD)
  • 睡眠和觉醒
  • 运动和神经网络
  • 创伤性脑损伤
  • 精神分裂症
  • 自闭症
  • 帕金森病

神经工程(结合脑和脊髓损伤及康复的治疗方法)

  • 呼吸和运动的反射系统和模式生成器控制的计算模型
  • 脊髓运动假体的发展
  • 皮质运动/感觉假体、脑机接口和神经机器人的发展

与神经科学相关的学位

生物医学工程
简单地说,生物医学工程利用工程学来解决健康和医疗问题。例如,生物医学工程师可能会在体内寻找警告某种特定疾病或状况的化学信号。

化学
化学研究的是确定构成物质的物质。化学学位课程专注于研究这些物质:它们的性质;它们如何相互作用、结合和变化;以及科学家如何利用化学过程来形成新物质。

计算机科学
计算机科学领域主要研究计算机系统以及人类如何与之交互。课程包括计算机科学数学,人工智能,数据结构和算法,程序设计入门。

语言学
语言学探索语言变化和方言的本质,语言是如何随着时间的推移而进化的,它是如何在人脑中被处理和存储的,以及它是如何获得的。它是对语言和交流的科学研究,包括在单一语言内和跨语言群体的研究。

语言学的主要分支领域是语音学——研究语音的产生、声学和听觉;音系学——声音的模式;形态学——单词的结构;句法——句子的结构;Semantics—意义;语用学——语境中的语言。

分子生物学
分子生物学学位课程教授细胞分子的组成、结构和相互作用,如对细胞功能至关重要的核酸和蛋白质。

药理学
药理学家研究药物的工作原理,以便以正确的方式使用它们。这项工作自然涉及到对化学和生物相互作用的理解。

哲学
哲学鼓励人们提出重大问题,并提出论据来试图回答这些问题。我们是谁?我们为什么在这里?我们相信什么?我们为什么要相信它?生活中什么是对与错?什么是真与假?什么是真实和不真实?哲学关注的是存在和知识的本质。

精神生物学
心理生物学是生物系统和行为之间的相互作用。它与我们的思想和感受如何与生物事件相结合有关。该领域的研究涵盖了诸如心理压力源如何影响大脑和行为等主题。举个例子,考试或面试会导致心悸。

机器人技术
机器人技术学位课程让学生能够与设计机器人和机器人系统的工程师一起工作,而这些工程师能够执行人类无法或不愿执行的任务。

你将学到的技能

神经科学专业的毕业生通过他们的学习课程获得这些可转移的技能:

  • 抽象推理
  • 学术写作和演讲
  • 注重细节
  • 对道德问题的认识
  • 沟通和人际交往能力
  • 实验设计
  • 实验室技能
  • 领导能力和团队精神
  • 观察、调查和批判性思维
  • 组织和时间管理
  • 研究和数据分析和解释
  • 总结大量的信息
  • 在数据分析中使用统计检验

神经科学学位能做什么?

因为神经科学结合了许多学科的各个方面——从化学、医学、语言学到数学、计算机科学和工程学——该领域的毕业生发现他们工作的领域惊人地广泛。许多人选择上医学院,成为一名医生或外科医生。

下面是神经科学中最常见的职业类别。有些职位需要进一步的教育和/或额外的专门培训。

研究与教学

  • 临床/医疗
  • 学术/大学
  • 生物技术
  • 制药/药物开发

保健和社会服务

  • 神经心理学/心理学
  • 神经成像/脑成像
  • 神经学
  • 神经外科
  • 神经精神病学/精神病学
  • 职业治疗
  • 物理治疗
  • 语言语音病理学
  • 药物滥用和行为障碍咨询

政府

  • 监管事务
  • 政策
  • 研究管理

写作与出版

  • 科学记者/博主/编辑
  • 关于大脑的创造性写作——适合儿童或成人

创意行业

  • 开发大脑发育玩具

学费

看看哪些学校最贵,哪些学校最便宜。

阅读关于学费的内容