mhurhangee/patent-ind-claim-en huggingface dataset:
A tire comprising: a body ply sheet having a rubber core defined by a top surface (TS) having a length (L) and a width (W), a bottom surface (BS) having substantially the same length (L) and width (W), and side surfaces having a common height (H), wherein the rubber core is further defined by a top rubber layer and a bottom rubber layer , the body ply sheet further including: reinforcement cords disposed between the top rubber layer and the bottom rubber layer , wherein the reinforcement cords span the width (W) of the body ply sheet , bleeder cords configured to vent gas from the tire during vulcanization, wherein the bleeder cords are disposed on the body ply sheet , and conductive cords configured to dissipate electric charge from the tire after vulcanization, wherein the conductive cords are disposed on the body ply characterized in that the reinforcement cords are spaced 0.0001-0.0040 m apart from each other, and the bleeder cords are spaced 0.08-0.12 m apart from each other, and the conductive cords are spaced 0.20-0.80 m apart from each other, and the conductive cords further comprise a segment that extends from the body ply sheet . a body ply sheet having a rubber core defined by a top surface (TS) having a length (L) and a width (W), a bottom surface (BS) having substantially the same length (L) and width (W), and side surfaces having a common height (H), wherein the rubber core is further defined by a top rubber layer and a bottom rubber layer , the body ply sheet further including: reinforcement cords disposed between the top rubber layer and the bottom rubber layer , wherein the reinforcement cords span the width (W) of the body ply sheet , bleeder cords configured to vent gas from the tire during vulcanization, wherein the bleeder cords are disposed on the body ply sheet , and conductive cords configured to dissipate electric charge from the tire after vulcanization, wherein the conductive cords are disposed on the body ply reinforcement cords disposed between the top rubber layer and the bottom rubber layer , wherein the reinforcement cords span the width (W) of the body ply sheet , bleeder cords configured to vent gas from the tire during vulcanization, wherein the bleeder cords are disposed on the body ply sheet , and conductive cords configured to dissipate electric charge from the tire after vulcanization, wherein the conductive cords are disposed on the body ply characterized in that the reinforcement cords are spaced 0.0001-0.0040 m apart from each other, and the bleeder cords are spaced 0.08-0.12 m apart from each other, and the conductive cords are spaced 0.20-0.80 m apart from each other, and the conductive cords further comprise a segment that extends from the body ply sheet .
A method for use in a wireless local area network, WLAN, system, the method comprising: receiving (S1710), by a receiving station, STA, a physical protocol data unit, PPDU, wherein the PPDU includes a legacy signal field, a control signal field contiguous to the legacy signal field, and a data field, wherein the legacy signal field is received through a first symbol, and the control signal field is received through a second symbol, wherein the legacy signal field and the control signal field are generated based on binary phase shift keying, BPSK, wherein the legacy signal field is generated based on a first signal bit, wherein the control signal field is generated based on a second signal bit, and wherein the second signal bit includes a packet indication field indicating whether the PPDU is an extreme high throughput, EHT, PPDU and second control information related to bandwidth of the PPDU; and determining (S1720), by the receiving STA, whether the PPDU is an EHT PPDU based on the control signal field. receiving (S1710), by a receiving station, STA, a physical protocol data unit, PPDU, wherein the PPDU includes a legacy signal field, a control signal field contiguous to the legacy signal field, and a data field, wherein the legacy signal field is received through a first symbol, and the control signal field is received through a second symbol, wherein the legacy signal field and the control signal field are generated based on binary phase shift keying, BPSK, wherein the legacy signal field is generated based on a first signal bit, wherein the control signal field is generated based on a second signal bit, and wherein the second signal bit includes a packet indication field indicating whether the PPDU is an extreme high throughput, EHT, PPDU and second control information related to bandwidth of the PPDU; and determining (S1720), by the receiving STA, whether the PPDU is an EHT PPDU based on the control signal field.
Internal sealing system for pipes , having at least one sealing sleeve , a tensioning strap and a lock section , wherein the lock section has a base body with an upper face , a lower face , a first pressure face and a second pressure face , as well as two external faces , wherein a groove is provided in each pressure face for receiving one end of a tensioning strap or a fitting piece , and the groove on the first pressure face is bounded at the outer faces by a wall portion , and a guide for an installation tool is provided above the groove on the second pressure face , characterised in that at least on one outer face a viewing window is provided through which the groove base of the groove in the first pressure face is visible.
A method for preparing an HLB adsorbent for solid phase extraction, the method comprising copolymerizing at least one hydrophobic monomer and at least one hydrophilic monomer in the presence of a non-polar porogen and a polar porogen, wherein the hydrophobic monomer comprises divinylbenzene and the hydrophilic monomer comprises acrylonitrile.
A microscope , comprising: an optical imaging system configured to image a specimen comprising a cover slip , said optical imaging system comprising adjustable correction means , a microscope drive configured to adjust the distance between the cover slip and the optical imaging system along the optical axis (O1) thereof, a position sensitive detector , an optical measuring system configured to: form a first measuring light beam and a second measuring light beam , direct the first measuring light beam into an entrance pupil of the optical imaging system eccentrically with a first distance to the optical axis (O1) thereof, direct the second measuring light beam into the entrance pupil of the optical imaging system eccentrically with a second distance to the optical axis (O1) thereof, the second distance being different from the first distance, receive a first reflection light beam that is created by a partial reflection of the first measuring light beam on a surface of the cover slip through the optical imaging system , receive a second reflection light beam that is created by a partial reflection of the second measuring light beam on the surface of the cover slip through the optical imaging system , and direct the first and second reflection light beams onto the position sensitive detector ; and a control unit configured to: record the positions of the first and second reflection light beams on the position sensitive detector , and determine an aberration based on the recorded positions of the first and second reflection light beams . an optical imaging system configured to image a specimen comprising a cover slip , said optical imaging system comprising adjustable correction means , a microscope drive configured to adjust the distance between the cover slip and the optical imaging system along the optical axis (O1) thereof, a position sensitive detector , an optical measuring system configured to: form a first measuring light beam and a second measuring light beam , direct the first measuring light beam into an entrance pupil of the optical imaging system eccentrically with a first distance to the optical axis (O1) thereof, direct the second measuring light beam into the entrance pupil of the optical imaging system eccentrically with a second distance to the optical axis (O1) thereof, the second distance being different from the first distance, receive a first reflection light beam that is created by a partial reflection of the first measuring light beam on a surface of the cover slip through the optical imaging system , receive a second reflection light beam that is created by a partial reflection of the second measuring light beam on the surface of the cover slip through the optical imaging system , and direct the first and second reflection light beams onto the position sensitive detector ; and a control unit configured to: record the positions of the first and second reflection light beams on the position sensitive detector , and determine an aberration based on the recorded positions of the first and second reflection light beams .
A mobile communication system including a terminal, UE , a mobility management device and a Serving Gateway, SGW , wherein: the SGW is configured to send a Downlink Data Notification message to the mobility management device ; and the mobility management device is configured to send a Downlink Data Notification Acknowledge message containing a cause value indicating a temporarily rejection due to mobility procedure to the SGW in response to the Downlink Data Notification message being received when a location registration procedure is in progress. the SGW is configured to send a Downlink Data Notification message to the mobility management device ; and the mobility management device is configured to send a Downlink Data Notification Acknowledge message containing a cause value indicating a temporarily rejection due to mobility procedure to the SGW in response to the Downlink Data Notification message being received when a location registration procedure is in progress.
A mattress system comprising: a mattress cover ; a first layer having a top surface and an opposite bottom surface , the top surface covered by the mattress cover , the first layer configured to permit a first airflow rate, for example, wherein the first layer is configured as a foam layer; a heating unit arranged above the top surface of the first layer and under the mattress cover , the heating unit being electrically controlled to increase temperature; an airflow insert pad arranged under the bottom surface of the first layer , and configured to permit a second airflow rate being higher than the first airflow rate; and an air controller configured to move air through the airflow insert pad and through the first layer to decrease a temperature at the top surface of the first layer , wherein the heating unit includes a foot warming envelop positioned at a foot of the mattress system , and the airflow insert pad is positioned closer to a head of the mattress system than the foot warming envelop . a mattress cover ; a first layer having a top surface and an opposite bottom surface , the top surface covered by the mattress cover , the first layer configured to permit a first airflow rate, for example, wherein the first layer is configured as a foam layer; a heating unit arranged above the top surface of the first layer and under the mattress cover , the heating unit being electrically controlled to increase temperature; an airflow insert pad arranged under the bottom surface of the first layer , and configured to permit a second airflow rate being higher than the first airflow rate; and an air controller configured to move air through the airflow insert pad and through the first layer to decrease a temperature at the top surface of the first layer , wherein the heating unit includes a foot warming envelop positioned at a foot of the mattress system , and the airflow insert pad is positioned closer to a head of the mattress system than the foot warming envelop .
Electrical arrangement - comprising a current conductor guided through a bushing in a carrier element, - an electrically conductive adapter element that is fitted onto the conductor end , projecting out of the bushing , of the current conductor , and - an electrical connection terminal fitted onto the adapter element, wherein the adapter element is a sleeve , the sleeve wall of which is provided with a separating slot that extends along the sleeve longitudinal axis from one of the two sleeve ends to the other of the two sleeve ends , characterized in that the sleeve has, in addition to the separating slot , at least one groove that extends radially from the outside to the inside and has a radially inner groove base , wherein the groove depth (T) is between 50% and 99% of the sleeve wall thickness (W) and the sleeve has precisely six such grooves arranged in a rotationally symmetrical manner. - comprising a current conductor guided through a bushing in a carrier element, - an electrically conductive adapter element that is fitted onto the conductor end , projecting out of the bushing , of the current conductor , and - an electrical connection terminal fitted onto the adapter element, wherein
An electrical device comprising: a battery pack ; a pressure sensor for measuring a volume change of the battery pack ; a voltage sensor in electrical communication with a positive terminal and a negative terminal of the battery pack ; a temperature sensor positioned in a cell of the battery pack ; and a battery management system including a controller in electrical communication with the pressure sensor, the voltage sensor, and the temperature sensor, the controller being configured to execute a program stored in the controller to determine a state of charge percentage of the battery pack based on modelled bulk forces that are determined in dependence on measurements by the pressure sensor, a terminal voltage reading from the voltage sensor, and a temperature reading from the temperature sensor, wherein the executed computer program is configured to determine a state of charge by using a model that estimates the state of charge in dependence on at least the modelled bulk force and the measured temperature. a battery pack ; a pressure sensor for measuring a volume change of the battery pack ; a voltage sensor in electrical communication with a positive terminal and a negative terminal of the battery pack ; a temperature sensor positioned in a cell of the battery pack ; and a battery management system including a controller in electrical communication with the pressure sensor, the voltage sensor, and the temperature sensor, the controller being configured to execute a program stored in the controller to determine a state of charge percentage of the battery pack based on modelled bulk forces that are determined in dependence on measurements by the pressure sensor, a terminal voltage reading from the voltage sensor, and a temperature reading from the temperature sensor, wherein the executed computer program is configured to determine a state of charge by using a model that estimates the state of charge in dependence on at least the modelled bulk force and the measured temperature.
A device for reducing heart valve regurgitation comprising: a plug for placing between natural heart valve leaflets, the plug shaped so that, upon systole, the natural heart leaflets coapt upon the plug, a frame including a generally D-shaped ring , the ring attached to the plug by two or more bridging elements , for supporting the plug between the natural heart valve leaflets, the ring configured to rest on top of the heart valve annulus; and a plurality of anchors attached to the device, for preventing the device from being swept upstream of the heart valve annulus upon systole, the plurality of anchors configured to be located below the heart valve annulus, wherein the plurality of anchors are configured to be at heart valve commissures when the device is in place in the heart. a plug for placing between natural heart valve leaflets, the plug shaped so that, upon systole, the natural heart leaflets coapt upon the plug, a frame including a generally D-shaped ring , the ring attached to the plug by two or more bridging elements , for supporting the plug between the natural heart valve leaflets, the ring configured to rest on top of the heart valve annulus; and a plurality of anchors attached to the device, for preventing the device from being swept upstream of the heart valve annulus upon systole, the plurality of anchors configured to be located below the heart valve annulus, wherein the plurality of anchors are configured to be at heart valve commissures when the device is in place in the heart.
A display device, comprising a display panel and a backlight module , which backlight module comprises a back plate , a light guide plate , and a light strip , the light guide plate and the light strip being mounted in the back plate, the display panel being mounted on the back plate, wherein shading tapes are disposed along edges of the display panel and are provided between the backlight module and the display panel, and wherein in the edges of the display panel, an edge close to the light strip and having an extending direction parallel to that of the light strip is a light incoming edge, and each end of the light incoming edge forms a light incoming corner with an end of an adjacent edge, characterized in that , the shading tape provided at each light incoming corner, the shading tape provided at a main body, except the ends, of the light incoming edge, and the shading tape provided at a main body, except the ends, of the adjacent edge forming the light incoming corner with the light incoming edge, are separate from each other; and on a side, which faces the display panel, of the shading tapes provided at the edges of the display panel, only portions of the shading tapes provided at parts of the edges of the display panel except the light incoming corners are provided with an adhesive layer.
Method for determining a sample composition of a coated sample comprising a bulk sample and a coating , the method comprising the steps of: (a) Obtaining (S100) a measured X-ray spectrum for at least one measurement point of the coated sample using a measurement system, the measured X-ray spectrum comprising a plurality of first lines characteristic for the bulk sample and at least one second line characteristic for a coating material ; (b) Determining (S200) a simulated X-ray spectrum for the coated sample based on an initial bulk sample composition and an initial coating material and thickness; (c) Determining (S300) an adapted bulk sample composition that improves a match between the plurality of first lines and an adapted simulated X-ray spectrum, wherein the adapted simulated X-ray spectrum is determined based on the adapted bulk sample composition and the initial coating material and thickness; (d) Determining (S400) an adapted coating thickness for the coating material based on the adapted bulk sample composition and the at least one second line ; and (e) Repeating the steps (b) to (d) using the adapted bulk sample composition and the adapted coating thickness of the coating material instead of the initial values, wherein the coating thickness is used for determining an absorption of X-rays. (a) Obtaining (S100) a measured X-ray spectrum for at least one measurement point of the coated sample using a measurement system, the measured X-ray spectrum comprising a plurality of first lines characteristic for the bulk sample and at least one second line characteristic for a coating material ; (b) Determining (S200) a simulated X-ray spectrum for the coated sample based on an initial bulk sample composition and an initial coating material and thickness; (c) Determining (S300) an adapted bulk sample composition that improves a match between the plurality of first lines and an adapted simulated X-ray spectrum, wherein the adapted simulated X-ray spectrum is determined based on the adapted bulk sample composition and the initial coating material and thickness; (d) Determining (S400) an adapted coating thickness for the coating material based on the adapted bulk sample composition and the at least one second line ; and (e) Repeating the steps (b) to (d) using the adapted bulk sample composition and the adapted coating thickness of the coating material instead of the initial values,
An applicator 100 for applying a substance to a surface, the applicator comprising: a hollow body 110, wherein the hollow body includes a distal portion112, a proximal portion114, an outer surface 118, an inner surface 116, and an activation region 120 between the distal portion and proximal portion, characterized in that the hollow body includes two longitudinal grooves 122 on at least one of the outer surface 118 and the inner surface 116 in the activation region 120; and wherein the hollow body has a first radial groove 124 in the activation region 120 that is on at least one of the outer surface 118 and the inner surface 116 and wherein the two longitudinal grooves 122 and the radial groove 124 have a width and depth sufficient to impart the desired flexibility to the activation region 120 while not reducing the thickness of the material forming the hollow body 110 to the point where it is vulnerable to puncture. a hollow body 110, wherein the hollow body includes a distal portion112, a proximal portion114, an outer surface 118, an inner surface 116, and an activation region 120 between the distal portion and proximal portion, characterized in that the hollow body includes two longitudinal grooves 122 on at least one of the outer surface 118 and the inner surface 116 in the activation region 120; and wherein the hollow body has a first radial groove 124 in the activation region 120 that is on at least one of the outer surface 118 and the inner surface 116 and wherein the two longitudinal grooves 122 and the radial groove 124 have a width and depth sufficient to impart the desired flexibility to the activation region 120 while not reducing the thickness of the material forming the hollow body 110 to the point where it is vulnerable to puncture.