mhurhangee/ep-ind-claims huggingface dataset:
An assembly comprising a slab (690, 790), and a fall pipe section (601; 701) for a flow of liquids or fluids, in particular of water in a fall flow direction, comprising an upstream fall pipe tubular member (610, 710), a downstream fall pipe tubular member (615, 715), a diverter section (620; 720) between the upstream fall pipe tubular member and the downstream fall pipe tubular member, a connection (630, 730) with a flow fitting member (638; 738) opening into the downstream fall pipe tubular member, the diverter section (620; 720) comprising a first diverter portion (622; 722) in the extension of the upstream fall pipe tubular member (610; 710) and being inclined with respect to the upstream fall pipe tubular member, a second diverter portion (624; 724) in the extension of the first diverter portion (622; 722) and substantially parallel to the fall flow direction, and a third diverter portion (626; 726) upstream of the second diverter portion (624; 724) and opening into the downstream fall pipe tubular member (615, 715), the upstream fall pipe tubular member, the downstream fall pipe tubular member and the flow fitting member being substantially aligned in the fall flow direction, characterized in that the fall section (601, 701) is positioned on either side of the slab (690, 790), the slab comprising a first through hole (691, 791) for the passage of the second diverter portion (624, 724) and a second through hole (692, 792) for the passage of the flow fitting member (638, 738) opening into the downstream fall pipe tubular member (615, 715), the first through-hole (691, 791) and the second through-hole (692, 792) are oriented in the flow direction, which is vertical when the fall is in operating position.
A computer-implemented method for authenticating beacon devices, the method comprising: receiving, by one or more computing devices, a static identifier and a message integrity code associated with a beacon device; generating, by the one or more computing devices, a plurality of expected time-modified identifiers by respectively performing an exclusive-or operation with respect to the static identifier and a plurality of expected time-counts; generating, by the one or more computing devices, a plurality of expected message integrity code precursors by respectively inputting into an obscuring function a rotation key associated with the static identifier and the plurality of expected time-modified identifiers; generating, by the one or more computing devices, a plurality of expected message integrity codes based at least in part on the plurality of expected message integrity code precursors; and determining, by the one or more computing devices, whether the received message integrity code matches any of the expected message integrity codes, wherein the received message integrity code is valid if it matches any of the expected message integrity codes. receiving, by one or more computing devices, a static identifier and a message integrity code associated with a beacon device; generating, by the one or more computing devices, a plurality of expected time-modified identifiers by respectively performing an exclusive-or operation with respect to the static identifier and a plurality of expected time-counts; generating, by the one or more computing devices, a plurality of expected message integrity code precursors by respectively inputting into an obscuring function a rotation key associated with the static identifier and the plurality of expected time-modified identifiers; generating, by the one or more computing devices, a plurality of expected message integrity codes based at least in part on the plurality of expected message integrity code precursors; and determining, by the one or more computing devices, whether the received message integrity code matches any of the expected message integrity codes, wherein the received message integrity code is valid if it matches any of the expected message integrity codes.
A method comprising: performing processing for multiple groups of code channels in multiple iterations; and performing data detection and signal cancellation for each of the multiple groups of code channels in a respective one of multiple stages for each iteration. performing processing for multiple groups of code channels in multiple iterations; and performing data detection and signal cancellation for each of the multiple groups of code channels in a respective one of multiple stages for each iteration.
Method for selecting at least one from a number of detected wireless data media (ID1, ID2, ID3), in particular at least one from a number of RFID transponders, wherein the data media (ID1, ID2, ID3) are registered in a detection area of a read/write device by means of a number of detection cycles, wherein at least one receive parameter is recorded for each of the detected data media (ID1, ID2, ID3), and wherein at least one of the data media (ID1, ID2, ID3) is selected on the basis of an evaluation of the recorded receive parameters, characterized in that a plurality of detection cycles are carried out by the read/write device in each case with a different antenna polarization (H, V, CR, CL), wherein at least one receive parameter is recorded in each case in the detection with the respectively used antenna polarization (H, V, CR, CL) for the detected data media (ID1, ID2, ID3), and that at least one of the detected data media (ID1, ID2, ID3) is selected in each case on the basis of a statistical evaluation of the receive parameters recorded in the different antenna polarizations (H, V, CR, CL).
A light receiver (10, 50) having a plurality of avalanche photo diode elements (10, 12a-c) which are biased with a bias voltage greater than a breakthrough voltage and are thus operated in a Geiger mode in order to trigger a Geiger current upon light reception, wherein the avalanche photo diode elements (10, 12a-c) comprise an avalanche photo diode (12a-c) as well as a first electrode and a second electrode used for biasing and wherein a charging unit (20a-c) is arranged between a respective avalanche photo diode element (12a-c) and the first electrode or the second electrode, and having a signal detection circuit for reading out the avalanche photo diode elements (10, 12a-c), wherein the signal detection circuit comprises an active coupling element having an input connected to the avalanche photo diodes (10, 12a-c) and an output, the active coupling element mapping an input current at the input to a measuring current corresponding to the input current in its course and level, characterized in that the avalanche photo diode elements (10, 12a-c) comprise a third electrode connected between the avalanche photo diode (12a-c) and the charging unit (20a-c), the input being connected to the third electrode, thus the Geiger current as the input current being mapped to the measurement current in that the input forms a virtual short-circuit for the Geiger current with respect to a potential (ground, -U BE; U const -U BE), and the output is decoupled from the input.
An article comprising a film wherein the film comprises semicrystalline polylactic acid polymer; polyvinyl acetate polymer having a Tg of at least 25°C; plasticizer; and a layer of adhesive disposed on the film, wherein the film composition does not exhibit plasticizer migration, as determined by placing 0.2 grams of the film composition in a closed scintillation vial, aging at 80°C for 24 hours, and thereafter inspecting the sample surface, wherein samples having a dry surface are considered to pass and samples having a wet or oily surface are considered to fail; wherein the film has a Tg less than 25°C; and wherein the Tg of the polyvinyl acetate polymer and the film is determined in accordance with the method described in the description under the section entitled "DSC-Differential Scanning Calorimetry", the Tg referring to the midpoint temperature of the second heating scan.
A two-part polyurethane- and/or polyurea-forming composition comprising a formulated isocyanate-reactive component and a formulated isocyanate component, wherein the formulated isocyanate-reactive component includes at least one polyol and at least 2 weight percent, based on the weight of the formulated isocyanate-reactive composition, of tribromoneopentyl alcohol and the formulated isocyanate component contains at least one organic polyisocyanate and at least 2 weight percent, based on the weight of the formulated polyisocyanate composition, of 2,2-bis(chloromethyl)trimethylene bis(bis(2-chloroethyl)phosphate).
A device for infusion or dispersion comprising: a handle including a first section and a second section, wherein the second section is rotatable with respect to the first section; a tube connected fast with the first section of the handle; a rod received in the tube and connected fast with the second section of the handle; and a basket including an outer shell and an inner shell that is receivable in the outer shell, the outer shell connects fast with the tube and the inner shell connects fast with the rod such that rotation of the second section of the handle with respect to the first section of the handle results in rotation of the inner shell with respect to the outer shell; and a detent mechanism in the handle, wherein the detent mechanism is operable in a locked position in which rotational movement of the first section of the handle with respect to the second section of the handle is inhibited, characterized in that the detent mechanism includes a translating member received in one of the first and second sections (22, 24) of the handle and a spring biasing the translating member toward the other of the first and second sections (22, 24) of the handle. a handle including a first section and a second section, wherein the second section is rotatable with respect to the first section; a tube connected fast with the first section of the handle; a rod received in the tube and connected fast with the second section of the handle; and a basket including an outer shell and an inner shell that is receivable in the outer shell, the outer shell connects fast with the tube and the inner shell connects fast with the rod such that rotation of the second section of the handle with respect to the first section of the handle results in rotation of the inner shell with respect to the outer shell; and a detent mechanism in the handle, wherein the detent mechanism is operable in a locked position in which rotational movement of the first section of the handle with respect to the second section of the handle is inhibited, characterized in that the detent mechanism includes a translating member received in one of the first and second sections (22, 24) of the handle and a spring biasing the translating member toward the other of the first and second sections (22, 24) of the handle.
A modified release solid oral composition, wherein said composition is a tablet, comprising a core and from 5 mg/cm 2 to 25 mg/cm 2 of an enteric coating, wherein: (a) the core comprises: (i) an effective amount of active pharmaceutical ingredient, wherein the active pharmaceutical ingredient is a peptide of 500 Da to 10,000 Da, (ii) a pH lowering agent selected from citric acid, tartaric acid and a combination thereof, (iii) an absorption enhancer comprising a cationic surface active agent, an anionic surface active agent or a combination thereof, wherein the absorption enhancer has a critical micelle concentration of from 1.0 mM to 40 mM, (iv) a filler comprising a hydrogel-forming polymer selected from hydroxypropylcellulose, hydroxypropylmethylcellulose (HPMC) or a combination thereof, wherein a 2% solution of the hydrogel-forming polymer has a viscosity between 3,000 to 120,000 cP at 20°C, and optionally (v) a pharmaceutically acceptable disintegrant, present at less than 0.01% by weight of the tablet; and (b) the enteric coating surrounds the core, wherein the composition provides a pharmacokinetic profile for the active agent with a T lag greater than 1.0 h and less than 16 h post-administration and a T max greater than (T lag +0.5 h) and less than 20 h post-administration at a fasted state. (a) the core comprises: (i) an effective amount of active pharmaceutical ingredient, wherein the active pharmaceutical ingredient is a peptide of 500 Da to 10,000 Da, (ii) a pH lowering agent selected from citric acid, tartaric acid and a combination thereof, (iii) an absorption enhancer comprising a cationic surface active agent, an anionic surface active agent or a combination thereof, wherein the absorption enhancer has a critical micelle concentration of from 1.0 mM to 40 mM, (iv) a filler comprising a hydrogel-forming polymer selected from hydroxypropylcellulose, hydroxypropylmethylcellulose (HPMC) or a combination thereof, wherein a 2% solution of the hydrogel-forming polymer has a viscosity between 3,000 to 120,000 cP at 20°C, and optionally (v) a pharmaceutically acceptable disintegrant, present at less than 0.01% by weight of the tablet; and (i) an effective amount of active pharmaceutical ingredient, wherein the active pharmaceutical ingredient is a peptide of 500 Da to 10,000 Da, (ii) a pH lowering agent selected from citric acid, tartaric acid and a combination thereof, (iii) an absorption enhancer comprising a cationic surface active agent, an anionic surface active agent or a combination thereof, wherein the absorption enhancer has a critical micelle concentration of from 1.0 mM to 40 mM, (iv) a filler comprising a hydrogel-forming polymer selected from hydroxypropylcellulose, hydroxypropylmethylcellulose (HPMC) or a combination thereof, wherein a 2% solution of the hydrogel-forming polymer has a viscosity between 3,000 to 120,000 cP at 20°C, and optionally (v) a pharmaceutically acceptable disintegrant, present at less than 0.01% by weight of the tablet; and (b) the enteric coating surrounds the core,
A compound of the formula wherein R is R 1 is CH 3, CD 3, CN, Cl or CF 3; provided when R 1 is CH 3 or CD 3 it is not attached at the 5 position; or a pharmaceutically acceptable salt thereof R is R 1 is CH 3, CD 3, CN, Cl or CF 3; provided when R 1 is CH 3 or CD 3 it is not attached at the 5 position; or a pharmaceutically acceptable salt thereof
Air-cooled oil tank having a plurality of first pipelines passing through the oil tank which are designed for the passage of cooling air and have a substantially identical diameter, characterized by a second pipeline passing through the oil tank which is designed for the passage of cooling air and in the diameter of which a fan is arranged, the diameter of the second pipeline being greater than the diameter of the first pipelines.
Use of a formulation comprising an effective amount of at least one 1- N -arylpyrazole derivative for interrupting the transmission of mosquito-borne diseases from a first actual or putative amplifying or incipient host to a second actual or putative amplifying or incipient host; wherein the first actual or putative amplifying or incipient host is selected from a domestic animal, a wild or domestic bird and a human; wherein the 1- N -arylpyrazole derivative is 5-amino-3-cyano-1-(2,6-dichloro-4-trifluoromethylphenyl)-4-trifluoromethylsulfinyl-pyrazole, or a compound of the formula: and wherein said formulation is for use in killing mosquitos feeding on said first actual or putative amplifying or incipient host, thereby interrupting the transmission of the mosquito-borne disease from said first actual or putative amplifying or incipient host to said second actual or putative amplifying or incipient host.
Method for designing and/or optimizing a surgical device, in particular an implant for fixation at or in a bone by means of a bone fixation element, said implant having one or more through holes with a central axis for receiving a bone fixation element and a surface to be placed adjacent or in contact with a bone, characterized by the following steps a) providing a general collection of three-dimensional bone quality data obtained from a patient population; b) identifying in the investigated patient population N > 2 categories of patients with significantly different N > 2 homologous sub-collections of bone quality data; c) designing an implant or optimizing an existing implant for each of the N > 2 sub-collections wherein said at least one through hole is located at c1) an optimal place of said implant; and with c2) an optimal direction of said central axis relative to said implant; said optimal position and direction being chosen based on each of said N > 2 sub-collections of data so as to obtain an optimal anchorage - based on said bone quality data - of said bone fixation element in the bone when introduced through said hole into the bone for each of said N > 2 sub-collections of data. a) providing a general collection of three-dimensional bone quality data obtained from a patient population; b) identifying in the investigated patient population N > 2 categories of patients with significantly different N > 2 homologous sub-collections of bone quality data; c) designing an implant or optimizing an existing implant for each of the N > 2 sub-collections wherein said at least one through hole is located at c1) an optimal place of said implant; and with c2) an optimal direction of said central axis relative to said implant; c1) an optimal place of said implant; and with c2) an optimal direction of said central axis relative to said implant;
A three-grating type photoelectric encoder comprising a second grating formed on a scale and a first grating and a light receiving array, arranged as either a reflection type encoder wherein, in use, light transmitted through the first grating will be reflected by the second grating and will generate interference fringes on a surface of the light receiving array, or a transmission type encoder wherein, in use, light transmitted through the first grating will be transmitted through the second grating and will generate interference fringes on a surface of the light receiving array, the light receiving array having a third grating thereon, wherein the first grating is divided in a direction perpendicular to the measurement axis or in the direction of the measurement axis and a part of the first grating is shifted with regard to the remaining part of the first grating in a direction of a measurement axis by P/, wherein P is a grating pitch of the first grating, and n is the order of a harmonic component to be removed, to thereby remove a harmonic component of the nth order.
An apparatus for protecting a user's eye from blue light radiation, characterized in that the apparatus comprises: a radiation detector configured to selectively convert blue light from a light source into a photo voltage having a voltage value; a processor coupled to the radiation detector and configured to calculate a cumulative radiation intensity based on the voltage value cumulated over a time interval, and to compare the cumulative radiation intensity with a threshold value; and a controller coupled to the processor, configured to adjustably control blocking of at least a portion of blue light from the user's eye when the cumulative radiation intensity exceeds the threshold value. a radiation detector configured to selectively convert blue light from a light source into a photo voltage having a voltage value; a processor coupled to the radiation detector and configured to calculate a cumulative radiation intensity based on the voltage value cumulated over a time interval, and to compare the cumulative radiation intensity with a threshold value; and a controller coupled to the processor, configured to adjustably control blocking of at least a portion of blue light from the user's eye when the cumulative radiation intensity exceeds the threshold value.
A method of processing data at a specific protocol layer in a wireless communication system, the method comprising: receiving a radio link control, RLC, protocol data unit, PDU, including a header from a lower layer, the header including sequence information and an extension bit, E-bit, wherein the E-bit identifies whether the RLC PDU includes a plurality of RLC service data units, SDUs; extracting the E-bit from the header of the RLC PDU; if the E-bit identifies that the RLC PDU includes only one RLC SDU, extracting the RLC SDU from the RLC PDU and delivering the extracted RLC SDU to an upper layer; if the E-bit identifies that the RLC PDU includes a plurality RLC SDUs, extracting one RLC SDU among the plurality of RLC SDUs from the RLC PDU, delivering the extracted one RLC SDU to an upper layer and discarding, at an RLC layer, the rest of RLC SDUs in the RLC PDU, wherein the extracted one RLC SDU is a first RLC SDU having time information in the RLC PDU and; wherein the specific protocol layer is the RLC layer. receiving a radio link control, RLC, protocol data unit, PDU, including a header from a lower layer, the header including sequence information and an extension bit, E-bit, wherein the E-bit identifies whether the RLC PDU includes a plurality of RLC service data units, SDUs; extracting the E-bit from the header of the RLC PDU; if the E-bit identifies that the RLC PDU includes only one RLC SDU, extracting the RLC SDU from the RLC PDU and delivering the extracted RLC SDU to an upper layer; if the E-bit identifies that the RLC PDU includes a plurality RLC SDUs, extracting one RLC SDU among the plurality of RLC SDUs from the RLC PDU, delivering the extracted one RLC SDU to an upper layer and discarding, at an RLC layer, the rest of RLC SDUs in the RLC PDU, wherein the extracted one RLC SDU is a first RLC SDU having time information in the RLC PDU and; wherein the specific protocol layer is the RLC layer.