mhurhangee/patent-ind-claim-en huggingface dataset:
A tibial insert, comprising: a base ; a post extending from the base along a longitudinal axis (X), the post having a medial surface , a lateral surface , and a height (H) along the longitudinal axis, the medial surface having a medial section, and the lateral surface having a lateral section oriented substantially parallel to the medial section, the medial section and the lateral section each having a width (W) in a substantially anterior-posterior direction, characterised in that the medial section and the lateral section each extend such that, along at least half of the height of the post, the width of the medial section and width of the lateral section in the substantially anterior-posterior direction at a given axial position along the longitudinal axis is between approximately one sixth and approximately two thirds of a largest width of the post in the substantially anterior-posterior direction at that axial position. a base ; a post extending from the base along a longitudinal axis (X), the post having a medial surface , a lateral surface , and a height (H) along the longitudinal axis, the medial surface having a medial section, and the lateral surface having a lateral section oriented substantially parallel to the medial section, the medial section and the lateral section each having a width (W) in a substantially anterior-posterior direction, characterised in that the medial section and the lateral section each extend such that, along at least half of the height of the post, the width of the medial section and width of the lateral section in the substantially anterior-posterior direction at a given axial position along the longitudinal axis is between approximately one sixth and approximately two thirds of a largest width of the post in the substantially anterior-posterior direction at that axial position.
A large area wireless power system (400; 70) comprising: a synchronization transmitter for generating a first single-ended signal and converting the first single-ended signal into a plurality of differential signals; a plurality of synchronization receivers for receiving the plurality of differential signals from the synchronization transmitter and outputting a plurality of second single-ended signals; a plurality of high power amplifiers for receiving the plurality of second single-ended signals from the respective synchronization receivers and generating power; a plurality of wireless power coils (40A, 40B, 40C; 81, 82) for receiving the power generated by the plurality of high power amplifiers and wirelessly providing power, characterized in that each of the plurality of synchronization receivers further comprises a delay compensation circuit for compensating for any phase delay in the second single-ended signal. a synchronization transmitter for generating a first single-ended signal and converting the first single-ended signal into a plurality of differential signals; a plurality of synchronization receivers for receiving the plurality of differential signals from the synchronization transmitter and outputting a plurality of second single-ended signals; a plurality of high power amplifiers for receiving the plurality of second single-ended signals from the respective synchronization receivers and generating power; a plurality of wireless power coils (40A, 40B, 40C; 81, 82) for receiving the power generated by the plurality of high power amplifiers and wirelessly providing power, characterized in that each of the plurality of synchronization receivers further comprises a delay compensation circuit for compensating for any phase delay in the second single-ended signal.
A method for measuring skin parameters for the analysis of cosmetic skin requirements by means of at least one measuring device, in which the skin type of a consumer of cosmetics is examined, the examination of the skin type being carried out at a location which can be freely determined by a provider of the examination and/or by the consumer of the cosmetics, wherein the measuring device is transferred to the freely determinable location by means of a transport means in the form of a suitcase or a transport box and wherein the result of the skin examination is visually displayed, characterized in that a computer device is integrated into the transport means and the computer device is connected to the measuring device, wherein by means of software the results of the skin examination are displayed on the screen of a monitor and several measuring parameters are used during the examination.
A rod assembly comprising a rod ; a first bearing assembly attached to a first end of the rod and a second bearing assembly attached to a second end of the rod, where each of the first and second bearing assembly comprises: an outer bearing member defining a cavity ; an inner bearing member disposed within the cavity , the inner bearing member including: a spherical surface ; and a rod attachment opening defined in the spherical surface ; and an elastomeric material disposed within the cavity adjacent to the spherical surface ; wherein the inner bearing member and the outer bearing member are capable of relative angular rotation with respect to each other. a rod ; a first bearing assembly attached to a first end of the rod and a second bearing assembly attached to a second end of the rod, where each of the first and second bearing assembly comprises: an outer bearing member defining a cavity ; an inner bearing member disposed within the cavity , the inner bearing member including: a spherical surface ; and a rod attachment opening defined in the spherical surface ; and an elastomeric material disposed within the cavity adjacent to the spherical surface ; wherein the inner bearing member and the outer bearing member are capable of relative angular rotation with respect to each other. an outer bearing member defining a cavity ; an inner bearing member disposed within the cavity , the inner bearing member including: a spherical surface ; and a rod attachment opening defined in the spherical surface ; and a spherical surface ; and a rod attachment opening defined in the spherical surface ; and an elastomeric material disposed within the cavity adjacent to the spherical surface ; wherein the inner bearing member and the outer bearing member are capable of relative angular rotation with respect to each other.
A lighting device configured to provide red lighting device light , the lighting device comprising: - a first light source configured to provide first light source light having a peak wavelength (λls); - a first red luminescent material configured to absorb at least part of the first light source light and to convert into first red luminescent material light having a first red emission peak wavelength (λm1), the first red luminescent material having an excitation maximum (λx1); - a second red luminescent material configured to absorb at least part of the first light source light and to convert into second red luminescent material light having a second red emission peak wavelength (λm2), the second red luminescent material having a second excitation maximum (λx2); wherein the first luminescent material and the second luminescent material are Eu 2+ based, and wherein λm1 < λm2, λx1 < λls and λx2 > λls, wherein the first red luminescent material comprises a ceramic material body comprising a luminescent material of the class of M 2 Si 5 N 8 :Eu, wherein the second red luminescent material comprises a luminescent material of the class of MLiAl 3 N 4 :Eu dispersed in a light transmissive matrix, wherein the second red luminescent material is configured downstream of the first light source , wherein the first red luminescent material is configured upstream or downstream of the second red luminescent material, and wherein M is independently selected from the group consisting of Ca, Mg, Sr, and Ba. - a first light source configured to provide first light source light having a peak wavelength (λls); - a first red luminescent material configured to absorb at least part of the first light source light and to convert into first red luminescent material light having a first red emission peak wavelength (λm1), the first red luminescent material having an excitation maximum (λx1); - a second red luminescent material configured to absorb at least part of the first light source light and to convert into second red luminescent material light having a second red emission peak wavelength (λm2), the second red luminescent material having a second excitation maximum (λx2);
Control method for a pushing aid of an electric bicycle , wherein the electric bicycle comprises at least an electric motor for driving the electric bicycle , a controller that performs the control method, and a gear shift for changing a gear ratio (i) between a pedal crank axle and a rear wheel axle, comprising identifying activation of the pushing aid, wherein, when activation is identified, at least the following steps are performed: • actuating the electric motor on the basis of a maximum speed of the pushing aid in order to generate a speed (v) of the electric bicycle , wherein the actuation takes place with a constant starting torque (M Start ) and it is assumed that the engaged gear ratio (i) corresponds to the highest gear ratio (i max ) of the gear shift , such that a speed that is less than or equal to the maximum speed for the pushing aid always results, • recording a current motor speed (n) of the electric motor , • recording the current speed (v) of the electric bicycle , • determining the engaged gear ratio (i) of the gear shift on the basis of the recorded motor speed (n) and the recorded speed (v), and • adjusting the electric motor on the basis of the determined gear ratio (i) and the maximum speed of the pushing aid in order to adjust the speed (v), wherein the speed (v) is increased and the maximum speed is not exceeded, • wherein, in a first run of the control method, the speed (v) is recorded by way of an acceleration sensor and, after the current speed (v) has been recorded by way of a reed sensor or GPS sensor, the steps following the actuation are repeated. • actuating the electric motor on the basis of a maximum speed of the pushing aid in order to generate a speed (v) of the electric bicycle , wherein the actuation takes place with a constant starting torque (M Start ) and it is assumed that the engaged gear ratio (i) corresponds to the highest gear ratio (i max ) of the gear shift , such that a speed that is less than or equal to the maximum speed for the pushing aid always results, • recording a current motor speed (n) of the electric motor , • recording the current speed (v) of the electric bicycle , • determining the engaged gear ratio (i) of the gear shift on the basis of the recorded motor speed (n) and the recorded speed (v), and • adjusting the electric motor on the basis of the determined gear ratio (i) and the maximum speed of the pushing aid in order to adjust the speed (v), wherein the speed (v) is increased and the maximum speed is not exceeded, • wherein, in a first run of the control method, the speed (v) is recorded by way of an acceleration sensor and, after the current speed (v) has been recorded by way of a reed sensor or GPS sensor, the steps following the actuation are repeated.
A method for a user equipment, UE , the method comprising: receiving (S110) signaling, by the UE , the signaling including: a first Non-Zero Power, NZP, channel state information, CSI, reference signal, RS, configuration for channel measurement; a second NZP CSI-RS configuration for multiple user, MU, interference measurement, the second NZP CSI-RS configuration being for configuring K NZP CSI-RS resources for the MU interference measurement, where K >= 1; and a CSI interference measurement, CSI-IM, configuration for interference measurement; receiving a CSI feedback request, the CSI feedback request being associated with the signaled first NZP CSI-RS configuration, the second NZP CSI-RS configuration, and the CSI-IM configuration; and responsive to the received CSI feedback request, measuring a downlink channel on a single first NZP CSI-RS resource corresponding to the first NZP CSI-RS configuration and measuring interference on each of the K NZP CSI-RS resources, the K NZP CSI-RS resources being used for the MU interference measurement that is associated with K+1 UE candidates for a multi-user multiple-input multiple-output, MU-MIMO, communication. receiving (S110) signaling, by the UE , the signaling including: a first Non-Zero Power, NZP, channel state information, CSI, reference signal, RS, configuration for channel measurement; a second NZP CSI-RS configuration for multiple user, MU, interference measurement, the second NZP CSI-RS configuration being for configuring K NZP CSI-RS resources for the MU interference measurement, where K >= 1; and a CSI interference measurement, CSI-IM, configuration for interference measurement; a first Non-Zero Power, NZP, channel state information, CSI, reference signal, RS, configuration for channel measurement; a second NZP CSI-RS configuration for multiple user, MU, interference measurement, the second NZP CSI-RS configuration being for configuring K NZP CSI-RS resources for the MU interference measurement, where K >= 1; and a CSI interference measurement, CSI-IM, configuration for interference measurement; receiving a CSI feedback request, the CSI feedback request being associated with the signaled first NZP CSI-RS configuration, the second NZP CSI-RS configuration, and the CSI-IM configuration; and responsive to the received CSI feedback request, measuring a downlink channel on a single first NZP CSI-RS resource corresponding to the first NZP CSI-RS configuration and measuring interference on each of the K NZP CSI-RS resources, the K NZP CSI-RS resources being used for the MU interference measurement that is associated with K+1 UE candidates for a multi-user multiple-input multiple-output, MU-MIMO, communication.
A controller (C) for a compression molding machine configured to fill a die bore with a powdery material and compress the powdery material with use of an upper punch and a lower punch to obtain a molded product, or for a powdery material feeding device (Z) configured to feed the compression molding machine with the powdery material, characterized in that , the controller is configured to adjust by increasing or decreasing an amount of a lubricant applied to an inner circumference of the die bore and the punch tips in accordance with whether or not a temperature of the die bore , the upper punch , or the lower punch , a temperature of the powdery material, or a humidity of the powdery material are out of predetermined ranges, respectively.
A method of decoding data, said method comprising: receiving a multiplexed stream comprising at least one elementary stream and at least another elementary stream ; queuing the at least one elementary stream in a queue; receiving a command of a user to decode the another elementary stream instead of the at least one elementary stream; after receiving the command, decoding a portion of the at least one elementary stream, wherein said portion of the at least one elementary stream was queued before receiving the command; decoding the another elementary stream after decoding the portion of the at least one elementary stream; characterized by after receiving the command, inserting a marker into the queue between the at least one elementary stream and the another elementary stream indicating when to interrupt decoding of the at least one elementary stream and when to start decoding of the another elementary stream; detecting said marker; and responsive to said detecting of said marker, changing the codec associated with the at least one elementary stream to a codec associated with the another elementary stream. receiving a multiplexed stream comprising at least one elementary stream and at least another elementary stream ; queuing the at least one elementary stream in a queue; receiving a command of a user to decode the another elementary stream instead of the at least one elementary stream; after receiving the command, decoding a portion of the at least one elementary stream, wherein said portion of the at least one elementary stream was queued before receiving the command; decoding the another elementary stream after decoding the portion of the at least one elementary stream; characterized by after receiving the command, inserting a marker into the queue between the at least one elementary stream and the another elementary stream indicating when to interrupt decoding of the at least one elementary stream and when to start decoding of the another elementary stream; detecting said marker; and responsive to said detecting of said marker, changing the codec associated with the at least one elementary stream to a codec associated with the another elementary stream.
A flexible circuit board connector comprising: a contact having a mating end and a terminating end, the mating end having a spring beam having a separable mating interface configured to be surface mounted to a contact pad of a flexible circuit board , the terminating end being configured to be terminated to a wire ; a housing holding the contact, the housing having: (i) a cap including a contact channel holding the contact ; (ii) a base hingedly coupled to the cap , the cap being closed to capture the flexible circuit board between the cap and the base ; (iii) fingers configured to extend through the flexible circuit board to secure the flexible circuit board connector to the flexible circuit board ; and (iv) a wire barrel configured to receive the wire , the cap being positionable above the flexible circuit board such that the contact is aligned with the contact pad ; characterized in that the flexible circuit board connector further comprises a clip coupled to the housing with an intermediate space between the clip and the cap , the clip being movable between an open position and a closed position; wherein the intermediate space is configured to receive the flexible circuit board when the clip is in the open position, and wherein the clip and housing are configured to capture the flexible circuit board when the clip is in the closed position, the spring beam being configured to be electrically connected to the contact pad when the clip is in the closed position. a contact having a mating end and a terminating end, the mating end having a spring beam having a separable mating interface configured to be surface mounted to a contact pad of a flexible circuit board , the terminating end being configured to be terminated to a wire ; a housing holding the contact, the housing having: (i) a cap including a contact channel holding the contact ; (ii) a base hingedly coupled to the cap , the cap being closed to capture the flexible circuit board between the cap and the base ; (iii) fingers configured to extend through the flexible circuit board to secure the flexible circuit board connector to the flexible circuit board ; and (iv) a wire barrel configured to receive the wire , the cap being positionable above the flexible circuit board such that the contact is aligned with the contact pad ; characterized in that the flexible circuit board connector further comprises a clip coupled to the housing with an intermediate space between the clip and the cap , the clip being movable between an open position and a closed position; wherein the intermediate space is configured to receive the flexible circuit board when the clip is in the open position, and wherein the clip and housing are configured to capture the flexible circuit board when the clip is in the closed position, the spring beam being configured to be electrically connected to the contact pad when the clip is in the closed position.
An in vitro method for analyzing a sample, comprising: (a) contacting an oligonucleotide or a conjugate comprising the same with a planar biological sample that is a tissue section under conditions by which the oligonucleotide or conjugate specifically binds to sites in or on the tissue section; (b) performing one or more steps to release and/or extend the oligonucleotide in situ, to produce a reporter probe; (c) transferring all or a part of the reporter probe from the tissue section to a planar support that does not comprise oligonucleotides, wherein the transferring is done by placing the tissue section on the support and transferring the reporter probes onto the surface of the support by diffusion such that the spatial relationship of the reporter probe in the tissue section is preserved, wherein the planar support is glass; and (d) detecting the reporter probe on the glass support by microscopy, wherein step (d) comprises hybridizing one or more labeled oligonucleotides, directly or indirectly, to the reporter probe and then detecting the binding pattern of the labeled oligonucleotides by microscopy, and wherein the method is free of any nucleic acid amplification. (a) contacting an oligonucleotide or a conjugate comprising the same with a planar biological sample that is a tissue section under conditions by which the oligonucleotide or conjugate specifically binds to sites in or on the tissue section; (b) performing one or more steps to release and/or extend the oligonucleotide in situ, to produce a reporter probe; (c) transferring all or a part of the reporter probe from the tissue section to a planar support that does not comprise oligonucleotides, wherein the transferring is done by placing the tissue section on the support and transferring the reporter probes onto the surface of the support by diffusion such that the spatial relationship of the reporter probe in the tissue section is preserved, wherein the planar support is glass; and (d) detecting the reporter probe on the glass support by microscopy, wherein step (d) comprises hybridizing one or more labeled oligonucleotides, directly or indirectly, to the reporter probe and then detecting the binding pattern of the labeled oligonucleotides by microscopy, and wherein the method is free of any nucleic acid amplification.
A polymer blend comprising: at least 90% by weight low density polyethylene (LDPE) polymer; and from 1% to 10% by weight ethylene acrylate copolymer, wherein the ethylene acrylate copolymer is the polymerized reaction product of: at least 75% by wt. ethylene, based on the total wt.% of the monomers present in the ethylene acrylate copolymer; and from 12% to 25% by wt. of alkyl acrylate, based on the total wt.% of the monomers present in the ethylene acrylate copolymer. at least 90% by weight low density polyethylene (LDPE) polymer; and from 1% to 10% by weight ethylene acrylate copolymer, wherein the ethylene acrylate copolymer is the polymerized reaction product of: at least 75% by wt. ethylene, based on the total wt.% of the monomers present in the ethylene acrylate copolymer; and from 12% to 25% by wt. of alkyl acrylate, based on the total wt.% of the monomers present in the ethylene acrylate copolymer. at least 75% by wt. ethylene, based on the total wt.% of the monomers present in the ethylene acrylate copolymer; and from 12% to 25% by wt. of alkyl acrylate, based on the total wt.% of the monomers present in the ethylene acrylate copolymer.