mhurhangee/ep-ind-claims huggingface dataset:
An eyeglass frame shape measurement apparatus that measures a shape of a rim (Ri) of an eyeglass frame, comprising: a frame holding means that has a rim holding member configured to hold the rim (Ri) of the eyeglass frame; a tracing stylus unit that has a tracing stylus inserted into a groove of the rim (Ri); an optical measurement unit configured to optically measure a shape of the groove of the rim (Ri); a support unit configured to integrally support the tracing stylus unit and the optical measurement unit; a changing means (210, 260) configured to change a relative positional relationship of an interfering object including at least one of the tracing stylus unit, the optical measurement unit and the support unit, with respect to an interfered object including at least one of the rim (Ri) of the eyeglass frame held by the frame holding means and the rim holding member; an interference information acquisition means configured to acquire interference information including position information of the interfered object; and a control means configured to control the changing means (210, 260) to avoid interference of the interfering object with respect to the interfered object, at a time of measurement of the rim (Ri), based on the interference information acquired by the interference information acquisition means. a frame holding means that has a rim holding member configured to hold the rim (Ri) of the eyeglass frame; a tracing stylus unit that has a tracing stylus inserted into a groove of the rim (Ri); an optical measurement unit configured to optically measure a shape of the groove of the rim (Ri); a support unit configured to integrally support the tracing stylus unit and the optical measurement unit; a changing means (210, 260) configured to change a relative positional relationship of an interfering object including at least one of the tracing stylus unit, the optical measurement unit and the support unit, with respect to an interfered object including at least one of the rim (Ri) of the eyeglass frame held by the frame holding means and the rim holding member; an interference information acquisition means configured to acquire interference information including position information of the interfered object; and a control means configured to control the changing means (210, 260) to avoid interference of the interfering object with respect to the interfered object, at a time of measurement of the rim (Ri), based on the interference information acquired by the interference information acquisition means.
Battery pack comprising a casing, this casing comprising a battery cooler, this cooler comprising a heat transfer fluid pipe having at least one fluid connection connecting the pipe to a fluid circuit external to the battery pack, this connector being covered by a removable anti-intrusion cap, characterized in that, in addition to its anti-intrusion function, this cap has a function of positioning the cooler relative to the housing.
An image decoding device, comprising: a filter unit configured to use, as an input, a decoded signal prior to a filtering process and output a filtered decoded signal, wherein the filter unit is configured to perform clipping processing on the decoded signal prior to the filtering process such that an absolute value of a differential value between a reference pixel value and a pixel value of the decoded signal prior to the filtering process is less than or equal to a predefined threshold value, and to generate the filtered decoded signal through the linear weighted addition of the value after the clipping processing is performed and the pixel value of the decoded signal prior to the filtering process; and the threshold value for a luma signal is set to be greater than or equal to the threshold value for a chroma signal regardless of an internal bit depth. a filter unit configured to use, as an input, a decoded signal prior to a filtering process and output a filtered decoded signal, wherein the filter unit is configured to perform clipping processing on the decoded signal prior to the filtering process such that an absolute value of a differential value between a reference pixel value and a pixel value of the decoded signal prior to the filtering process is less than or equal to a predefined threshold value, and to generate the filtered decoded signal through the linear weighted addition of the value after the clipping processing is performed and the pixel value of the decoded signal prior to the filtering process; and the threshold value for a luma signal is set to be greater than or equal to the threshold value for a chroma signal regardless of an internal bit depth.
A blast barrier system comprising: a thermoplastic polymeric blast panel attached to a first face of a beam; a first end of a strut attached to a second face of the beam opposite the first face; a second end of the strut attached to an energy absorber comprising a substantially tubular member extending longitudinally along an axis from a first end portion to a second end portion, each of the first end portion and the second end portion having a substantially similar geometric profile; the energy absorber attached to a structure, wherein the energy absorber extends substantially longitudinally and horizontally along a face of the structure, wherein the blast panel flexes when compressed by a blast force and wherein the energy absorber collapses under a predetermined load when compressed by a residual blast force. a thermoplastic polymeric blast panel attached to a first face of a beam; a first end of a strut attached to a second face of the beam opposite the first face; a second end of the strut attached to an energy absorber comprising a substantially tubular member extending longitudinally along an axis from a first end portion to a second end portion, each of the first end portion and the second end portion having a substantially similar geometric profile; the energy absorber attached to a structure, wherein the energy absorber extends substantially longitudinally and horizontally along a face of the structure, wherein the blast panel flexes when compressed by a blast force and wherein the energy absorber collapses under a predetermined load when compressed by a residual blast force.
Thick material pump having a first delivery cylinder, a second delivery cylinder and an additional cylinder for bridging a transition between the first delivery cylinder and the second delivery cylinder, and having a movable tube section which, in a first state, forms a connection between the first delivery cylinder and an outlet of the thick material pump, and which in a second state forms a connection between the second delivery cylinder and the outlet of the thick material pump, characterized in that the movable tube section comprises a switchable closure which is arranged between an inlet end of the movable tube section and the additional cylinder.
A method for transmitting data, comprising: determining a plurality of carriers or carrier groups for transmitting duplicated data according to a plurality of logical channels for carrying the duplicated data, wherein at least two logical channels in the plurality of logical channels correspond to different carriers or carrier groups for transmitting the duplicated data; transmitting the duplicated data carried in the plurality of logical channels respectively on the plurality of carriers or carrier groups; wherein in the plurality of logical channels, different logical channels correspond to different MAC entities; wherein at least two logical channels in the plurality of logical channels corresponding to different carriers or carrier groups for transmitting the duplicated data comprises: in the MAC entities corresponding to the plurality of logical channels, different MAC entities correspond to different carriers or carrier groups. determining a plurality of carriers or carrier groups for transmitting duplicated data according to a plurality of logical channels for carrying the duplicated data, wherein at least two logical channels in the plurality of logical channels correspond to different carriers or carrier groups for transmitting the duplicated data; transmitting the duplicated data carried in the plurality of logical channels respectively on the plurality of carriers or carrier groups; wherein in the plurality of logical channels, different logical channels correspond to different MAC entities; wherein at least two logical channels in the plurality of logical channels corresponding to different carriers or carrier groups for transmitting the duplicated data comprises: in the MAC entities corresponding to the plurality of logical channels, different MAC entities correspond to different carriers or carrier groups.
A method for operating a heating system in a building with at least one heatable room, said heating system comprising: - at least one radiator in each heatable room, said at least one radiator comprising an actuator for setting a volumetric flow through the radiator; - a heat generator for heating a carrier medium that flows via - a supply to - said at least one radiator and flows via - a return back to said heat generator; - a pump arranged in said supply or return for pumping the carrier medium; - a temperature sensor arranged in said supply for determining a supply temperature ( T VL) of the carrier medium; - a temperature sensor arranged in the at least one heatable room for determining an actual room temperature ( T R) of the room; - a control device regulating or controlling said heat generator in order to adjust the supply temperature ( T VL) of the carrier medium to a predetermined supply target temperature ( T VL,W); and - a room temperature controller for controlling the room temperature by adjusting an actuator opening ( H akt) of said actuator as a function of a predetermined target room temperature ( T R,W) and the determined actual room temperature ( T R), said method comprising the steps of: - detecting a current actuator opening ( H akt) of said actuator of the at least one radiator; - determining the target supply temperature ( T VL,W) as a function of the current actuator opening ( H akt) of said actuator of the at least one radiator; characterized in that said method further comprises: - determining a set of control parameters ( K p, K i) for operating the room temperature controller as a function of the current actuator opening ( H akt) of said actuator. - at least one radiator in each heatable room, said at least one radiator comprising an actuator for setting a volumetric flow through the radiator; - a heat generator for heating a carrier medium that flows via - a supply to - said at least one radiator and flows via - a return back to said heat generator; - a pump arranged in said supply or return for pumping the carrier medium; - a temperature sensor arranged in said supply for determining a supply temperature ( T VL) of the carrier medium; - a temperature sensor arranged in the at least one heatable room for determining an actual room temperature ( T R) of the room; - a control device regulating or controlling said heat generator in order to adjust the supply temperature ( T VL) of the carrier medium to a predetermined supply target temperature ( T VL,W); and - a room temperature controller for controlling the room temperature by adjusting an actuator opening ( H akt) of said actuator as a function of a predetermined target room temperature ( T R,W) and the determined actual room temperature ( T R), - detecting a current actuator opening ( H akt) of said actuator of the at least one radiator; - determining the target supply temperature ( T VL,W) as a function of the current actuator opening ( H akt) of said actuator of the at least one radiator; - determining a set of control parameters ( K p, K i) for operating the room temperature controller as a function of the current actuator opening ( H akt) of said actuator.
A vehicle equipped with a power steering device which comprises at least one steering rack and one assist motor arranged to drive said steering rack, as well as at least one onboard calculator within the vehicle and intended to pilot said assist motor, said calculator being mostly, and preferably entirely, placed below the rack, said vehicle being characterized in that the power steering device comprises a shell inside which the rack is guided in translation, and in that said shell comprises a calculator location arranged to accommodate the calculator inside said shell, under said rack.
Method for assisting a coupling process between an agricultural utility vehicle and an implement which is to be attached thereto, during which a first vertical light fan is generated by means of a first, vehicle-mounted laser unit operating in the visible wavelength range, and a second vertical light fan is generated by means of a second, vehicle-mounted laser unit operating in the visible wavelength range, wherein, in order to carry out the coupling process with a coupling point (28, 30; 54) and/or a reference point, characterizing the coupling point (30; 54), on the implement, the vertical light fans (36, 38) are moved into congruence so that a position of the reference point and/or coupling point (52; 28, 30; 54), to be assumed or measured in order to carry out the coupling process, on the agricultural utility vehicle is made visible by means of a vertical light marking (44, 46) which is projected along the ground and in the region of the reference point and/or coupling point (52; 28, 30; 54) on the implement.
Building material for building construction and/or for buildings, preferably for outdoor use and/or damp areas, designed as and/or in the form of a building part and/or building component or for use on building parts and/or building components, wherein the building material contains or is equipped with at least one antimicrobial and/or herbicidal biopolymer selected from chitosan and/or its salt, wherein the antimicrobial and/or herbicidal biopolymer has a weight-average molecular weight M w in the range from 1500 Da to 9,499 Da and wherein the antimicrobial and/or herbicidal biopolymer has a polydispersity index, calculated as the quotient of weight average molecular weight M w and number average molecular weight M n, in the range of 1.05 to 5; and wherein the building material comprises and/or is provided with at least one additive, wherein the additive is selected from the group of (i) proteins and protein hydrolysates selected from the group of whey, whey proteins, keratin hydrolysate, wheat protein hydrolysate, collagen hydrolysate and gelatin; (ii) hydroxycarboxylic acids selected from the group consisting of lactic acid, citric acid, malic acid, tartaric acid, mandelic acid and salicylic acid; and (iii) ascorbic acid; and mixtures and combinations thereof. wherein the building material contains or is equipped with at least one antimicrobial and/or herbicidal biopolymer selected from chitosan and/or its salt, wherein the antimicrobial and/or herbicidal biopolymer has a weight-average molecular weight M w in the range from 1500 Da to 9,499 Da and wherein the antimicrobial and/or herbicidal biopolymer has a polydispersity index, calculated as the quotient of weight average molecular weight M w and number average molecular weight M n, in the range of 1.05 to 5; and wherein the building material comprises and/or is provided with at least one additive, wherein the additive is selected from the group of (i) proteins and protein hydrolysates selected from the group of whey, whey proteins, keratin hydrolysate, wheat protein hydrolysate, collagen hydrolysate and gelatin; (ii) hydroxycarboxylic acids selected from the group consisting of lactic acid, citric acid, malic acid, tartaric acid, mandelic acid and salicylic acid; and (iii) ascorbic acid; and mixtures and combinations thereof.
A method for imaging a tooth surface, the method executed at least in part on a computer, comprising: directing an excitation signal toward the tooth from a scan head, wherein the excitation signal is an optical! signal or an acoustical signal; obtaining a depth-resolved response signal emanating from the tooth, wherein the response signal encodes tooth surface structure information; segmenting bodily fluid collected on or around the tooth and the tooth surface from the depth-resolved response signal; adjusting the tooth surface structure information based on the segmented bodily fluid; reconstructing a 3D image of the tooth according to the depth-resolved response signal and the adjusted tooth surface structure information; and displaying, storing or transmitting the 3D image content. directing an excitation signal toward the tooth from a scan head, wherein the excitation signal is an optical! signal or an acoustical signal; obtaining a depth-resolved response signal emanating from the tooth, wherein the response signal encodes tooth surface structure information; segmenting bodily fluid collected on or around the tooth and the tooth surface from the depth-resolved response signal; adjusting the tooth surface structure information based on the segmented bodily fluid; reconstructing a 3D image of the tooth according to the depth-resolved response signal and the adjusted tooth surface structure information; and displaying, storing or transmitting the 3D image content.
Transfer device for a patient, the device comprising a support pad for a torso and further comprises - a first leg extending out from a portion of said support pad having an outer strap (17a,20) attached to an outer seam and an inner strap (17b,20) attached to an inner seam; and - a second leg spaced from said first leg and extending out from said portion of said support pad having an outer strap (17c,20) attached to an outer seam and an inner strap (17d,20) attached to an inner seam, wherein each of said outer straps (17c, 20) and said inner straps (17d, 20) are releasably interconnected to a corresponding eyelet formed adjacent to each said seam. - a first leg extending out from a portion of said support pad having an outer strap (17a,20) attached to an outer seam and an inner strap (17b,20) attached to an inner seam; and - a second leg spaced from said first leg and extending out from said portion of said support pad having an outer strap (17c,20) attached to an outer seam and an inner strap (17d,20) attached to an inner seam, wherein each of said outer straps (17c, 20) and said inner straps (17d, 20) are releasably interconnected to a corresponding eyelet formed adjacent to each said seam.
A combined optical system for determining the surface temperature of an object or material and its distance from a predetermined reference point associated with said system, characterized in that it comprises: - optical radiation source means adapted to emit at least one optical probe radiation at a predetermined wavelength or in a predetermined wavelength range; - means for controlling the optical radiation source means, arranged to alternately control the switching of said optical radiation source means between an operative condition, in which they emit said at least one optical probe radiation, and a inoperative condition, in which they do not emit any optical probe radiation, according to a predetermined frequency; - optical detection means adapted to detect at least one scattered optical radiation and one optical radiation thermally emitted from the surface of said object or material; - processing means synchronized with said control means and arranged for determining the distance of the surface of said object or material from said reference point on the basis of the optical probe radiation scattered from the surface of said object or material and received by said detection means when the optical radiation source means are operative; and determining the local temperature of the surface of said object or material on the basis of the optical radiation thermally emitted from the surface of said object or material and received by said detection means when the optical radiation source means are inoperative. - optical radiation source means adapted to emit at least one optical probe radiation at a predetermined wavelength or in a predetermined wavelength range; - means for controlling the optical radiation source means, arranged to alternately control the switching of said optical radiation source means between an operative condition, in which they emit said at least one optical probe radiation, and a inoperative condition, in which they do not emit any optical probe radiation, according to a predetermined frequency; - optical detection means adapted to detect at least one scattered optical radiation and one optical radiation thermally emitted from the surface of said object or material; - processing means synchronized with said control means and arranged for determining the distance of the surface of said object or material from said reference point on the basis of the optical probe radiation scattered from the surface of said object or material and received by said detection means when the optical radiation source means are operative; and determining the local temperature of the surface of said object or material on the basis of the optical radiation thermally emitted from the surface of said object or material and received by said detection means when the optical radiation source means are inoperative.
A method for determining a time-domain resource, implemented by a terminal and comprising: receiving, from a network device, allocation information for scheduling a time-domain resource, the time-domain resource to be scheduled comprising a time-domain resource for transmission of a channel; determining a time-domain position corresponding to the time-domain resource to be scheduled based on a preset rule according to Uplink,UL,/Downlink,DL, time-domain resource configuration information and the allocation information, wherein the preset rule comprises a regulation manner for the network device to regulate the time-domain resource in a case that a scheduling of the time-domain resource conflicts with a configuration of the time-domain resource; and performing channel transmission with the network device through the time-domain resource to be scheduled according to the time-domain position corresponding to the time-domain resource to be scheduled; wherein the allocation information for scheduling a time-domain resource comprises information about the amount of the time-domain resource to be scheduled, and the amount of the time-domain resource to be scheduled comprises the amount of a slot and/or the amount of a symbol. receiving, from a network device, allocation information for scheduling a time-domain resource, the time-domain resource to be scheduled comprising a time-domain resource for transmission of a channel; determining a time-domain position corresponding to the time-domain resource to be scheduled based on a preset rule according to Uplink,UL,/Downlink,DL, time-domain resource configuration information and the allocation information, wherein the preset rule comprises a regulation manner for the network device to regulate the time-domain resource in a case that a scheduling of the time-domain resource conflicts with a configuration of the time-domain resource; and performing channel transmission with the network device through the time-domain resource to be scheduled according to the time-domain position corresponding to the time-domain resource to be scheduled; wherein the allocation information for scheduling a time-domain resource comprises information about the amount of the time-domain resource to be scheduled, and the amount of the time-domain resource to be scheduled comprises the amount of a slot and/or the amount of a symbol.