mhurhangee/patent-ind-claim-en huggingface dataset:
A non-therapeutic method for programming a personalized exercise movement adjusted to an individual human subject in a computer-controlled, motorized exercise device , the device comprising a control unit , an articulated system for conducting exercise movements and one or more motors arranged to act on said articulated system under the control of said control unit , wherein said articulated system comprises an interface for connecting the articulated system to a limb of a human subject, and wherein said exercise device comprises a measuring system for determining torque and/or force at said interface , the method comprising the steps of: - determining forces and/or torque at said interface by way of said measuring system while a human assistant conducts a muscle-propelled movement by holding a limb of said individual human subject with the human assistant's hands while said limb acts on said interface ; - actively accompanying said muscle-propelled movement by said motors acting on said articulated system , wherein said control unit determines the parameters of an active accompanying movement of said articulated system on the basis of the measurements of forces and/or torque by said measuring system , wherein said step of actively accompanying said muscle-propelled movement is conducted in an active compliance mode in which said control unit determines a movement of said articulated system that is suitable to avoid occurrence of torque and/or force at said interface caused by said muscle-propelled movement; - recording the said active accompanying movement; - determining and programming in said device a personalized exercise movement on the basis of the recorded active accompanying movement. - determining forces and/or torque at said interface by way of said measuring system while a human assistant conducts a muscle-propelled movement by holding a limb of said individual human subject with the human assistant's hands while said limb acts on said interface ; - actively accompanying said muscle-propelled movement by said motors acting on said articulated system , wherein said control unit determines the parameters of an active accompanying movement of said articulated system on the basis of the measurements of forces and/or torque by said measuring system , wherein said step of actively accompanying said muscle-propelled movement is conducted in an active compliance mode in which said control unit determines a movement of said articulated system that is suitable to avoid occurrence of torque and/or force at said interface caused by said muscle-propelled movement; - recording the said active accompanying movement; - determining and programming in said device a personalized exercise movement on the basis of the recorded active accompanying movement.
A terminal device that is configured to perform first communication with Evolved Universal Terrestrial Radio Access Network, second communication with a second terminal device directly, and belonging to a terminal device group, the terminal device comprising: a reception unit configured to and/or programmed to receive a second radio network temporary identifier, RNTI, using a higher layer signal in the first communication, the second RNTI common to the terminal device group, and receive first downlink control information, DCI, on a physical downlink control channel, PDCCH, from a base station apparatus in the first communication, the first DCI including an uplink grant for the first communication, and the first DCI attached with a first cyclic redundancy parity check, CRC, bit scrambled with a first RNTI; and a transmission unit configured to and/or programmed to perform transmission processing in the second communication; the reception unit is configured to receive second DCI on the PDCCH, a second CRC bit scrambled with the second RNTI is attached to the second DCI, and the second DCI includes resource allocation for the second communication and information to instruct to be a transmission terminal or a reception terminal in the terminal device group, the resource allocation indicating a bitmap, the bitmap, each bit of the bitmap corresponding to one subframe, indicating a periodicity and an offset for a number of a subframe reserved for the second communication, the subframe being a portion of an uplink subframe and an uplink pilot time slot for the first communication, and a payload size of the first DCI being the same as a second payload size of the second DCI. a reception unit configured to and/or programmed to receive a second radio network temporary identifier, RNTI, using a higher layer signal in the first communication, the second RNTI common to the terminal device group, and receive first downlink control information, DCI, on a physical downlink control channel, PDCCH, from a base station apparatus in the first communication, the first DCI including an uplink grant for the first communication, and the first DCI attached with a first cyclic redundancy parity check, CRC, bit scrambled with a first RNTI; and a transmission unit configured to and/or programmed to perform transmission processing in the second communication; the reception unit is configured to receive second DCI on the PDCCH, a second CRC bit scrambled with the second RNTI is attached to the second DCI, and the second DCI includes resource allocation for the second communication and information to instruct to be a transmission terminal or a reception terminal in the terminal device group, the resource allocation indicating a bitmap, the bitmap, each bit of the bitmap corresponding to one subframe, indicating a periodicity and an offset for a number of a subframe reserved for the second communication, the subframe being a portion of an uplink subframe and an uplink pilot time slot for the first communication, and a payload size of the first DCI being the same as a second payload size of the second DCI.
An electronic device, comprising: a screen , wherein the screen comprises a bendable flexible screen portion ; at least two support blocks , wherein each of the support blocks is arranged on the back side of the flexible screen portion and is configured to support the flexible screen portion , characterized in that : the electronic device further comprises a flexible threaded rod , wherein the flexible threaded rod is disposed on a back side of the flexible screen portion ; and each support block is sleeved on the flexible threaded rod , at least one support block cooperates with the flexible threaded rod through threads, and the flexible threaded rod and the at least two support blocks are movable between a first state and a second state; wherein in the first state, the flexible screen portion is curved; and in the second state, the flexible screen portion is flat. a screen , wherein the screen comprises a bendable flexible screen portion ; at least two support blocks , wherein each of the support blocks is arranged on the back side of the flexible screen portion and is configured to support the flexible screen portion , characterized in that : the electronic device further comprises a flexible threaded rod , wherein the flexible threaded rod is disposed on a back side of the flexible screen portion ; and each support block is sleeved on the flexible threaded rod , at least one support block cooperates with the flexible threaded rod through threads, and the flexible threaded rod and the at least two support blocks are movable between a first state and a second state; wherein the electronic device further comprises a flexible threaded rod , wherein the flexible threaded rod is disposed on a back side of the flexible screen portion ; and each support block is sleeved on the flexible threaded rod , at least one support block cooperates with the flexible threaded rod through threads, and the flexible threaded rod and the at least two support blocks are movable between a first state and a second state; wherein in the first state, the flexible screen portion is curved; and in the second state, the flexible screen portion is flat.
A method of exchanging material, wherein a gaseous, liquid, or supercritical mobile phase containing species to be separated is circulated through a packing comprising a stationary phase, the packing comprises a plurality of capillary ducts formed in at least one first material, the ducts passing through the packing between an upstream face by which the mobile phase enters the packing and a downstream face by which the mobile phase leaves the packing, each duct comprising, on at least one portion of the inner wall thereof, at least one secondary material which consists of an organic gel or a porous mineral; the thickness of the secondary material defines, inside the duct, at least one empty tubular channel of solid material, the channel being open so as to allow the mobile phase to enter into and be extended continuously between the upstream and downstream faces of the capillary ducts; the cumulative volume of the capillary ducts is more than 15% of the total packing volume; characterised in that the method is carried out on a column, the ducts of which have a thickness of porous secondary material of between 0.01 times and 0.15 times the diameter of the channel, at an elution speed of between 5 times and 25 times the optimum speed of the mobile phase defined by the minimum of the Van Deemter curve of the majority compound being separated under the method conditions. the packing comprises a plurality of capillary ducts formed in at least one first material, the ducts passing through the packing between an upstream face by which the mobile phase enters the packing and a downstream face by which the mobile phase leaves the packing, each duct comprising, on at least one portion of the inner wall thereof, at least one secondary material which consists of an organic gel or a porous mineral; the thickness of the secondary material defines, inside the duct, at least one empty tubular channel of solid material, the channel being open so as to allow the mobile phase to enter into and be extended continuously between the upstream and downstream faces of the capillary ducts; the cumulative volume of the capillary ducts is more than 15% of the total packing volume; characterised in that the method is carried out on a column, the ducts of which have a thickness of porous secondary material of between 0.01 times and 0.15 times the diameter of the channel, at an elution speed of between 5 times and 25 times the optimum speed of the mobile phase defined by the minimum of the Van Deemter curve of the majority compound being separated under the method conditions.
A method for determining a radius of elements suspended in a medium, comprising: binding the elements to nanoparticles to form bound element-nanoparticle aggregates; superposing first and second frequency-shifted optical waves having a variable frequency shift between them in the medium such that there is a gain in energy of the first optical wave with respect to the second optical wave; varying the frequency shift and measuring the gain while varying the frequency shift to determine the value of the frequency shift at which there is a peak in the gain; determining the radius of the bound element-nanoparticle aggregates based on the value of the frequency shift at which there is a peak in the gain; and determining the radius of the elements based on the radius of the bound element-nanoparticle aggregates. binding the elements to nanoparticles to form bound element-nanoparticle aggregates; superposing first and second frequency-shifted optical waves having a variable frequency shift between them in the medium such that there is a gain in energy of the first optical wave with respect to the second optical wave; varying the frequency shift and measuring the gain while varying the frequency shift to determine the value of the frequency shift at which there is a peak in the gain; determining the radius of the bound element-nanoparticle aggregates based on the value of the frequency shift at which there is a peak in the gain; and determining the radius of the elements based on the radius of the bound element-nanoparticle aggregates.
A fall arresting device comprising: a device housing ; a shaft within the device housing; a rotor assembly rotatably connected to the shaft, the rotor assembly comprising a disc and a drum , the disc comprising at least one region of a ferromagnetic material; an extendable lifeline connected to and coiled around the drum, the lifeline configured to connect the fall arresting device to a user or a support structure, wherein the extension of the lifeline causes the disc and drum to rotate around the shaft; a magnetic sensor , the magnetic sensor positioned adjacent to the disc and positioned stationary relative to the device housing such that the magnetic sensor remains stationary within the housing while the drum and disc about the shaft with the extension or retraction of the lifeline; and a magnet comprising a hard-magnetic material, the magnet positioned adjacent to the disc, positioned stationary relative the magnetic sensor, and positioned stationary relative the device housing such that the magnetic sensor remains stationary within the housing while the drum and disc about the shaft with extension or retraction of the lifeline, wherein the magnetic sensor is configured to detect a change in a magnetic field produced by the magnet when the disc rotates about the shaft, the change in the magnetic field induced by the at least one region of the ferromagnetic material being brought within close proximity to the magnet as the disc rotates. a device housing ; a shaft within the device housing; a rotor assembly rotatably connected to the shaft, the rotor assembly comprising a disc and a drum , the disc comprising at least one region of a ferromagnetic material; an extendable lifeline connected to and coiled around the drum, the lifeline configured to connect the fall arresting device to a user or a support structure, wherein the extension of the lifeline causes the disc and drum to rotate around the shaft; a magnetic sensor , the magnetic sensor positioned adjacent to the disc and positioned stationary relative to the device housing such that the magnetic sensor remains stationary within the housing while the drum and disc about the shaft with the extension or retraction of the lifeline; and a magnet comprising a hard-magnetic material, the magnet positioned adjacent to the disc, positioned stationary relative the magnetic sensor, and positioned stationary relative the device housing such that the magnetic sensor remains stationary within the housing while the drum and disc about the shaft with extension or retraction of the lifeline, wherein the magnetic sensor is configured to detect a change in a magnetic field produced by the magnet when the disc rotates about the shaft, the change in the magnetic field induced by the at least one region of the ferromagnetic material being brought within close proximity to the magnet as the disc rotates.
A secondary battery, comprising a first terminal assembly, a second terminal assembly , a top cover plate , an electrode assembly, a first sealing piece , a fixing piece and a conductive plate , wherein the electrode assembly comprises a first electrode plate, a second electrode plate and a separator between the first electrode plate and the second electrode plate; at least one of the first terminal assembly and the second terminal assembly is electrically insulated from the top cover plate ; characterized in that the first terminal assembly comprises a connecting plate and a deformable plate , the connecting plate is located at a side of the top cover plate away from the electrode assembly and fixed to the top cover plate via the fixing piece , and the deformable plate directly contacts with the connecting plate ; the top cover plate is provided with a first through-hole , and the deformable plate , the conductive plate and the first through-hole are aligned with each other; the first sealing piece is connected between the connecting plate and the top cover plate ; in a normal state, the deformable plate is electrically connected with the first electrode plate via the conductive plate , the first electrode plate is electrically connected with the connecting plate via the deformable plate , and the second electrode plate is electrically connected with the second terminal assembly ; and the deformable plate is configured to deform to electrically disconnect from the first electrode plate when an internal pressure of the secondary battery exceeds a reference pressure.
An adjustment unit, in particular for adjusting a pitch angle of a wind turbine rotor blade , comprising a pivot bearing including at least two coaxial bearing rings that are rotatable with respect to one another, at least one adjustment actuator for rotating the two bearing rings with respect to one another, and a supply unit for supplying the adjustment actuator with energy, wherein the at least one adjustment actuator and the supply unit are disposed on oppositely disposed sides of an adjustment drive carrier part of preferably plate shape or saucer-shape which is directly or indirectly rotatably fixedly connected with one of the bearing rings and has a rotatable common support bearing for rotatably supporting the adjustment actuator , and wherein the supply unit is mounted together with the adjustment actuator rotatably at the carrier part such that the supply unit and the adjustment actuator are rotatable and/or pivotable together with respect to the carrier part without any relative rotation with respect to one another, characterized in that the support bearing comprises a bearing journal that passes through the carrier part and is rotatably supported at the carrier part , with, on the one hand, said adjustment actuator and, on the other hand, the supply unit each being rotatably fixedly supported on the bearing journal at oppositely disposed end sections of said bearing journal .
Bicycle saddle comprising: - a shell fitted with fastening means for fastening the saddle to an associable bicycle, the shell extending, in a prevailing longitudinal direction (X- X), from a front end to a rear end , - a padding associated to an upper portion of the shell , opposite said frame, characterized in that the shell comprises a rigid portion which supports said fastening means and a controlled deformation portion positioned between the rigid portion and the padding , - wherein said controlled deformation portion comprises at least one yielding insert suitable to deform itself elastically in compression when in use, wherein said yielding insert comprises a perimetral structure closed in a loop , wherein said perimetral structure closed in a loop is internally hollow, characterized in that said yielding inserts suitable to deform elastically in compression are placed in concave areas of the rigid portion of the shell , on the side of the rear end of the saddle , on opposite and symmetrical sides with respect to a longitudinal centreline plane (M - M) of said saddle. - a shell fitted with fastening means for fastening the saddle to an associable bicycle, the shell extending, in a prevailing longitudinal direction (X- X), from a front end to a rear end , - a padding associated to an upper portion of the shell , opposite said frame, the shell comprises a rigid portion which supports said fastening means and a controlled deformation portion positioned between the rigid portion and the padding , - wherein said controlled deformation portion comprises at least one yielding insert suitable to deform itself elastically in compression when in use, wherein said yielding insert comprises a perimetral structure closed in a loop , - wherein said controlled deformation portion comprises at least one yielding insert suitable to deform itself elastically in compression when in use, wherein said yielding insert comprises a perimetral structure closed in a loop , wherein said perimetral structure closed in a loop is internally hollow, characterized in that said yielding inserts suitable to deform elastically in compression are placed in concave areas of the rigid portion of the shell , on the side of the rear end of the saddle , on opposite and symmetrical sides with respect to a longitudinal centreline plane (M - M) of said saddle.
Cargo hold of an aircraft, comprising: - cladding elements which are attached to supports, in particular structural elements , of the aircraft, wherein the cladding elements have a plurality of cladding holes with predefined cladding hole spacings (dV) for attachment, and - at least one housing element for accommodating electronic components and/or cables, characterized in that the housing element has at least one pair of housing holes for receiving fastening devices, wherein the housing holes have a housing hole spacing (dG) corresponding to at least one pair of cladding hole spacings (dV). - cladding elements which are attached to supports, in particular structural elements , of the aircraft, wherein the cladding elements have a plurality of cladding holes with predefined cladding hole spacings (dV) for attachment, and - at least one housing element for accommodating electronic components and/or cables,
A method for receiving downlink signal at a relay in a wireless communication system, the method comprising: monitoring first control information for downlink scheduling in a first slot of a resource block, RB, pair to receive the first control information, wherein the first control information includes resource allocation information on one or more resource units for data; receiving the data related with the first control information in a second slot of the RB pair based on that the resource allocation information informing the one or more resource units for the data exist in the RB pair in response to a reception of the first control information for downlink scheduling in the first slot of the RB pair; and monitoring second control information for uplink scheduling in the second slot of the RB pair based on that resource allocation information informing the one or more resource units for the data do not exist in the RB pair. monitoring first control information for downlink scheduling in a first slot of a resource block, RB, pair to receive the first control information, wherein the first control information includes resource allocation information on one or more resource units for data; receiving the data related with the first control information in a second slot of the RB pair based on that the resource allocation information informing the one or more resource units for the data exist in the RB pair in response to a reception of the first control information for downlink scheduling in the first slot of the RB pair; and monitoring second control information for uplink scheduling in the second slot of the RB pair based on that resource allocation information informing the one or more resource units for the data do not exist in the RB pair.