mhurhangee/ep-ind-claims huggingface dataset:
Cuff for the orthotic treatment of joint or muscle problems in the region of joints of the human or animal body, which cuff comprises by overlapping the joint a first cuff part for abutment against a first body part below the joint and a second cuff part for abutment against a second body part above the joint, the two cuff parts being connected to one another via a connecting area and each being formed from a belt which can be placed around the respective body part and is provided with fastening means (8, 9), whereas, when applying the cuff to the body in the area of the inner side of the joint, the connecting area between the two cuff parts hinders stretching of the first body part relative to the second body part, by placing the connecting area under tensile stress, characterized in that at least one section of the second cuff part above the joint is designed as stretchable, the stretchable section being formed from two or more strip-shaped strands (5, 6) of the second cuff part which are separated from one another and of which the strand or strands facing away from the bend of the joint is or are of rubber-elastic design.
A method of supporting fast sub-cell switching by a sub-cell included in a macro coverage comprising a plurality of sub-cells which are discriminated based on virtual cell identifiers (VCIDs) or scrambling IDs in a wireless communication system, the method comprising: receiving multiple pieces of feedback information on multiple sub-cells from a User Equipment, UE,, the feedback information including a channel quality indicator, CQI, a precoding matrix index, PMI, a rank indicator, RI; extracting the channel quality indicator from the multiple pieces of received feedback information, respectively; comparing values of the extracted channel quality indicators; and determining, based on whether a channel quality indicator having a largest value among the extracted channel quality indicators is a channel quality indicator of a serving sub-cell of the UE according to a result of the comparison, whether to perform fast sub-cell switching of the UE, wherein when the channel quality indicator having the largest value among the extracted channel quality indicators is determined to be the channel quality indicator of the serving sub-cell of the UE, maintaining the serving sub-cell, when the channel quality indicator having the largest value among the extracted channel quality indicators is determined not to be the channel quality indicator of the serving sub-cell of the UE, performing sub-cell switching of the UE to a sub-cell having the channel quality indicator having the largest value. receiving multiple pieces of feedback information on multiple sub-cells from a User Equipment, UE,, the feedback information including a channel quality indicator, CQI, a precoding matrix index, PMI, a rank indicator, RI; extracting the channel quality indicator from the multiple pieces of received feedback information, respectively; comparing values of the extracted channel quality indicators; and determining, based on whether a channel quality indicator having a largest value among the extracted channel quality indicators is a channel quality indicator of a serving sub-cell of the UE according to a result of the comparison, whether to perform fast sub-cell switching of the UE, wherein when the channel quality indicator having the largest value among the extracted channel quality indicators is determined to be the channel quality indicator of the serving sub-cell of the UE, maintaining the serving sub-cell, when the channel quality indicator having the largest value among the extracted channel quality indicators is determined not to be the channel quality indicator of the serving sub-cell of the UE, performing sub-cell switching of the UE to a sub-cell having the channel quality indicator having the largest value.
A cooling system comprising a cooling bond pad (102, 200, 500) comprising: a plurality of internal-cooling channels operable to cool the cooling bond pad (102, 200, 500); at least one internal-flow channel coupled to the internal-cooling channels, and operable to direct an internal-coolant flow to the internal-cooling channels; and at least one external-flow channel operable to direct a through-coolant flow through the cooling bond pad (102, 200, 500), the system further comprising a thermal shield coupled to the cooling bond pad (102, 200, 500), wherein the through-coolant flow is directed to the thermal shield to cool the thermal shield. a plurality of internal-cooling channels operable to cool the cooling bond pad (102, 200, 500); at least one internal-flow channel coupled to the internal-cooling channels, and operable to direct an internal-coolant flow to the internal-cooling channels; and at least one external-flow channel operable to direct a through-coolant flow through the cooling bond pad (102, 200, 500), the system further comprising a thermal shield coupled to the cooling bond pad (102, 200, 500), wherein the through-coolant flow is directed to the thermal shield to cool the thermal shield.
A tethered electrode lead system comprising: a coupling member (18, 18', 18", 22, 44) having first (19, 19', 19") and second ends (20, 20', 20"); and a kit (10, 10', 10") comprising an electrode lead (11, 11', 11") having a distal end including an opening (13, 13', 13") and an anchor (12, 12', 12", 21) configured to be secured to an anatomical structure, the anchor having an eyelet (16, 16', 16", 31, 41) comprising a first portion sized and shaped to allow free movement of the coupling member therethrough and a second portion sized and shaped to lock the coupling member in place, wherein the electrode lead is configured to be coupled to the anchor via the coupling member by securing the first end of the coupling member to the opening in the electrode lead and passing the second end of the coupling member through the first portion of the eyelet to place the electrode lead at a desired anatomical site within a patient, and wherein the system is configured to vary a distance between the electrode lead and the anchor within the patient using the coupling member. a coupling member (18, 18', 18", 22, 44) having first (19, 19', 19") and second ends (20, 20', 20"); and a kit (10, 10', 10") comprising an electrode lead (11, 11', 11") having a distal end including an opening (13, 13', 13") and an anchor (12, 12', 12", 21) configured to be secured to an anatomical structure, the anchor having an eyelet (16, 16', 16", 31, 41) comprising a first portion sized and shaped to allow free movement of the coupling member therethrough and a second portion sized and shaped to lock the coupling member in place, wherein the electrode lead is configured to be coupled to the anchor via the coupling member by securing the first end of the coupling member to the opening in the electrode lead and passing the second end of the coupling member through the first portion of the eyelet to place the electrode lead at a desired anatomical site within a patient, and wherein the system is configured to vary a distance between the electrode lead and the anchor within the patient using the coupling member.
A method of monitoring, by a user equipment, UE, feedback information in a narrowband, NB, wireless communication system, the method comprising: transmitting, to a base station, a Physical Random Access Channel, PRACH, preamble; receiving, from the base station, a random access response based on the PRACH preamble; transmitting, to the base station, message 3 based on the random access response; receiving, from the base station, a message for contention resolution based on the message 3; receiving, from the base station, a preconfigured uplink, UL, resource, PUR, configuration via radio resource control, RRC, signaling; transmitting, to the base station, uplink data on the PUR ending in subframe n in an idle mode; the method being characterized by monitoring, from the base station, the feedback information for the uplink data in a search space window starting in subframe n+4; and stopping the monitoring based on the feedback information being received in the search space window. transmitting, to a base station, a Physical Random Access Channel, PRACH, preamble; receiving, from the base station, a random access response based on the PRACH preamble; transmitting, to the base station, message 3 based on the random access response; receiving, from the base station, a message for contention resolution based on the message 3; receiving, from the base station, a preconfigured uplink, UL, resource, PUR, configuration via radio resource control, RRC, signaling; transmitting, to the base station, uplink data on the PUR ending in subframe n in an idle mode; the method being characterized by monitoring, from the base station, the feedback information for the uplink data in a search space window starting in subframe n+4; and stopping the monitoring based on the feedback information being received in the search space window.
A selection plate for and attachable to a spreading apparatus for dispensing particulate material, the spreading apparatus comprising: a bucket configured to store the particulate material; a cover connected to the bucket; a dispensing arrangement having at least one opening and configured to dispense the particulate material, with the selection plate being embodied as the dispensing arrangement and being attachable to the cover and including a plurality of apertures, defining the at least one opening, whereby the at least one opening can be adjusted according to the required amount for dispensing of the particulate material, the dispensing arrangement further comprising a barrier to break clumps of the particulate material while dispensing, characterized in that the barrier comprises at least one guiding member transversely disposed inside the at least one opening, wherein the at least one guiding member having a longitudinal edge that is at least partially arranged normally offset to a plane of the at least one opening, wherein the longitudinal edge has a narrow flange and a broad flange, wherein the broad flange is configured to be positioned downward, while dispensing the particulate material, to act as a directional support structure, with the guiding members being moulded together with the selection plate during manufacturing or alternatively joined by adhesive at the narrow flange and the broad flange. a bucket configured to store the particulate material; a cover connected to the bucket; a dispensing arrangement having at least one opening and configured to dispense the particulate material, with the selection plate being embodied as the dispensing arrangement and being attachable to the cover and including a plurality of apertures, defining the at least one opening, whereby the at least one opening can be adjusted according to the required amount for dispensing of the particulate material, the dispensing arrangement further comprising a barrier to break clumps of the particulate material while dispensing, characterized in that the barrier comprises at least one guiding member transversely disposed inside the at least one opening, wherein the at least one guiding member having a longitudinal edge that is at least partially arranged normally offset to a plane of the at least one opening, wherein the longitudinal edge has a narrow flange and a broad flange, wherein the broad flange is configured to be positioned downward, while dispensing the particulate material, to act as a directional support structure, with the guiding members being moulded together with the selection plate during manufacturing or alternatively joined by adhesive at the narrow flange and the broad flange.
A smart glasses tracking method, wherein the smart glasses comprise a processor and a memory, and the method comprises: adjusting (S 1402) the smart glasses into a first operating mode in response to the smart glasses having a movement speed greater than a preset value; adjusting (S 1402) the smart glasses into a second operating mode in response to the movement speed of the smart glasses being less than the preset value; capturing an image; identifying (S 1404) one or more objects in the image; in response to the smart glasses being in the first operating mode, selecting, according to a result of the identifying and from identified objects, an object located at a predefined position or region in the image, and informing (S 1406) a user of the selected object; and in response to the smart glasses being in the second operating mode, determining, according to the result of the identifying, whether there is special information at the predefined position or region in the image, and informing (S 1406) the user of the special information when there is the special information at the predefined position or region in the image; wherein, the special information comprises a character or a two-dimensional code, and wherein the predefined position in the image is a central position in the image and the predefined region in the image is a region at the center of the image. adjusting (S 1402) the smart glasses into a first operating mode in response to the smart glasses having a movement speed greater than a preset value; adjusting (S 1402) the smart glasses into a second operating mode in response to the movement speed of the smart glasses being less than the preset value; capturing an image; identifying (S 1404) one or more objects in the image; in response to the smart glasses being in the first operating mode, selecting, according to a result of the identifying and from identified objects, an object located at a predefined position or region in the image, and informing (S 1406) a user of the selected object; and in response to the smart glasses being in the second operating mode, determining, according to the result of the identifying, whether there is special information at the predefined position or region in the image, and informing (S 1406) the user of the special information when there is the special information at the predefined position or region in the image; wherein, the special information comprises a character or a two-dimensional code, and wherein the predefined position in the image is a central position in the image and the predefined region in the image is a region at the center of the image.
A communication method, wherein the method comprises: when a quantity of minimum scheduling time units in one time of scheduling performed by a network side device is S, and the network side device and a terminal device transmit data in a first transmission mode, determining, by the network side device, a target scheduling rule from N scheduling rules, wherein the scheduling rule comprises at least one of a quantity T of transport blocks in one time of scheduling and a mapping relationship between T transport blocks and S minimum scheduling time units in one time of scheduling, N is an integer greater than or equal to 2, T is an integer greater than or equal to 1, S is an integer greater than or equal to 1, and the first transmission mode is a single-antenna transmission scheme or a multi-antenna transmission scheme; and communicating, by the network side device, with the terminal device according to the target scheduling rule, wherein the determining, by the network side device, a target scheduling rule from N scheduling rules comprises: determining, by the network side device based on a correspondence between parameter information and a scheduling rule, a scheduling rule corresponding to determined parameter information in the N scheduling rules as the target scheduling rule, wherein the parameter information comprises at least one of a subcarrier spacing used when the network side device communicates with the terminal device and a quantity of symbols occupied by a minimum scheduling time unit that are used when the network side device communicates with the terminal device. when a quantity of minimum scheduling time units in one time of scheduling performed by a network side device is S, and the network side device and a terminal device transmit data in a first transmission mode, determining, by the network side device, a target scheduling rule from N scheduling rules, wherein the scheduling rule comprises at least one of a quantity T of transport blocks in one time of scheduling and a mapping relationship between T transport blocks and S minimum scheduling time units in one time of scheduling, N is an integer greater than or equal to 2, T is an integer greater than or equal to 1, S is an integer greater than or equal to 1, and the first transmission mode is a single-antenna transmission scheme or a multi-antenna transmission scheme; and communicating, by the network side device, with the terminal device according to the target scheduling rule, wherein the determining, by the network side device, a target scheduling rule from N scheduling rules comprises: determining, by the network side device based on a correspondence between parameter information and a scheduling rule, a scheduling rule corresponding to determined parameter information in the N scheduling rules as the target scheduling rule, wherein the parameter information comprises at least one of a subcarrier spacing used when the network side device communicates with the terminal device and a quantity of symbols occupied by a minimum scheduling time unit that are used when the network side device communicates with the terminal device.
A cutting device (22, 222, 322, 422, 522, 622, 722, 822, 922, 1022, 1122, 1222, 1322) for use in ophthalmologic surgery, comprising: an ultrasonic energy transmission section at a proximal end of the cutting device and a tip section at a distal end of the cutting device, wherein the tip section has a distally flattened material contact blade section that comprises an inferior, material contact point representing a distal most end of the blade section and being lowermost during use and a superior, forward edge that extends in an upwardly sloped fashion proximally away from the material contact point, which forward edge is free of an aspiration port, and a superior edge of the tip section, and wherein the tip section comprises opposing essentially planar side walls (36, 38) that extend in a direction from the superior edge of the tip section to an inferior edge of the tip section, the opposing essentially planar side walls (36, 38) converging toward one another in a superior-edge to inferior-edge direction. an ultrasonic energy transmission section at a proximal end of the cutting device and a tip section at a distal end of the cutting device, wherein the tip section has a distally flattened material contact blade section that comprises an inferior, material contact point representing a distal most end of the blade section and being lowermost during use and a superior, forward edge that extends in an upwardly sloped fashion proximally away from the material contact point, which forward edge is free of an aspiration port, and a superior edge of the tip section, and wherein the tip section comprises opposing essentially planar side walls (36, 38) that extend in a direction from the superior edge of the tip section to an inferior edge of the tip section, the opposing essentially planar side walls (36, 38) converging toward one another in a superior-edge to inferior-edge direction.
A lamp having - a support element with an elongated receiving region, which has a U-shaped cross section, so that the receiving area has a first U-limb and a second U-limb and a connecting limb connecting the two U-limbs (31, 32), - a LED light module with at least one LED for generating a light for a light emission of the lamp, wherein the LED light module is arranged retained on the support element, - a contacting element for the power supply of the LED light module, wherein the connecting limb has a passage opening and the contacting element and the LED light module are arranged connected with each other in an electrically conductive and thereby reversibly releasable manner in such a manner that said electrical connection passes through the passage opening, wherein the electrical connection between the contacting element and the LED light module is a plug connection, wherein the LED light module can optionally be arranged in different orientations on the support element, characterized in that the LED light module has two plugs arranged rotated by 180° in respect to each other. - a support element with an elongated receiving region, which has a U-shaped cross section, so that the receiving area has a first U-limb and a second U-limb and a connecting limb connecting the two U-limbs (31, 32), - a LED light module with at least one LED for generating a light for a light emission of the lamp, wherein the LED light module is arranged retained on the support element, - a contacting element for the power supply of the LED light module,
A method for producing a laminated film, wherein the method comprises - providing at least one structure comprising a transparent layer comprising transparent conductor material on a first non-conductive transparent base film, wherein the structure has a first outer surface and a second outer surface, which is opposite to the first outer surface; - providing a second non-conductive transparent base film having a first main surface and a second main surface, which is opposite to the first main surface; characterized in that, the method further comprises, - arranging the at least one structure and the second non-conductive transparent base film one on the other to form a layered film preform, wherein at least the one of the first main surface and the second main surface that faces the at least one structure is provided with a surface roughness of 1.1 - 20 pm as measured according to ISO 4287/1997, and wherein at least the one of the first outer surface and the second outer surface that faces the second non-conductive transparent base film is provided with a surface roughness of above 0 - 1.0 pm as measured according to ISO 4287/1997; and - applying heat and pressure on the layered film preform for a predetermined period of time for bonding together the at least one structure and the second non-conductive transparent base film. - providing at least one structure comprising a transparent layer comprising transparent conductor material on a first non-conductive transparent base film, wherein the structure has a first outer surface and a second outer surface, which is opposite to the first outer surface; - providing a second non-conductive transparent base film having a first main surface and a second main surface, which is opposite to the first main surface; characterized in that, the method further comprises, - arranging the at least one structure and the second non-conductive transparent base film one on the other to form a layered film preform, wherein at least the one of the first main surface and the second main surface that faces the at least one structure is provided with a surface roughness of 1.1 - 20 pm as measured according to ISO 4287/1997, and wherein at least the one of the first outer surface and the second outer surface that faces the second non-conductive transparent base film is provided with a surface roughness of above 0 - 1.0 pm as measured according to ISO 4287/1997; and - applying heat and pressure on the layered film preform for a predetermined period of time for bonding together the at least one structure and the second non-conductive transparent base film.