mhurhangee/patent-ind-claim-en huggingface dataset:
An element (10; 50) comprising: a core structure (11; 51) which has a root portion (18; 54) and is formed from a high thermal conductivity ceramic matrix composite material; and a low thermal conductivity layer (14; 52) co-formed with said core structure (11; 51) and surrounding said root portion (18; 54) of said core structure (11; 51); characterized in that said low thermal conductivity layer (14; 52) is formed from a three dimensional woven material infiltrated by a matrix material. a core structure (11; 51) which has a root portion (18; 54) and is formed from a high thermal conductivity ceramic matrix composite material; and a low thermal conductivity layer (14; 52) co-formed with said core structure (11; 51) and surrounding said root portion (18; 54) of said core structure (11; 51); characterized in that said low thermal conductivity layer (14; 52) is formed from a three dimensional woven material infiltrated by a matrix material.
Self-perforating spacer comprising: - a first part , which has a first head and a tube having a first end joined to the first head , a second, free end , and a through-housing that opens out at the first head at one end and at the second end at the other end, and - a second part , which has a second head and a body extending from the second head to a terminal face , which comprises a duct that opens out at the second head at one end and at the terminal face at the other end and is configured to accommodate the tube of the first part , - the self-perforating spacer being configured to take up a dismantled state, in which the first and second parts are independent, and an assembled state, in which the first and second parts are joined together and immobilized with respect to one another, the first and second parts having cooperating shapes configured, in an engaged and locked state corresponding to the assembled state of the self-perforating spacer, to immobilize the first and second parts with respect to one another when the tube of the first part is accommodated in the duct of the second part , characterized in that the self-perforating spacer comprises - a cutting system, which has a first circular blade positioned on a first face of the first head of the first part , and a second circular blade positioned on the terminal face of the second part , the first and second blades being configured and positioned to cooperate and to intersect when the self-perforating spacer is in the assembled state. - a first part , which has a first head and a tube having a first end joined to the first head , a second, free end , and a through-housing that opens out at the first head at one end and at the second end at the other end, and - a second part , which has a second head and a body extending from the second head to a terminal face , which comprises a duct that opens out at the second head at one end and at the terminal face at the other end and is configured to accommodate the tube of the first part , - the self-perforating spacer being configured to take up a dismantled state, in which the first and second parts are independent, and an assembled state, in which the first and second parts are joined together and immobilized with respect to one another, the first and second parts having cooperating shapes configured, in an engaged and locked state corresponding to the assembled state of the self-perforating spacer, to immobilize the first and second parts with respect to one another when the tube of the first part is accommodated in the duct of the second part , - a cutting system, which has a first circular blade positioned on a first face of the first head of the first part , and a second circular blade positioned on the terminal face of the second part , the first and second blades being configured and positioned to cooperate and to intersect when the self-perforating spacer is in the assembled state.
A method of wireless communication of a user equipment, UE, comprising: receiving a configuration with carrier aggregation; and determining a starting symbol for a physical downlink shared channel, PDSCH, without assistance of a physical control format indicator channel, PCFICH; wherein the determining the starting symbol for the PDSCH comprises: initializing the starting symbol for the PDSCH as symbol 3; and if determining that an interference of the PDSCH is greater than a threshold, performing blind detection to determine whether to modify the starting symbol for the PDSCH. receiving a configuration with carrier aggregation; and determining a starting symbol for a physical downlink shared channel, PDSCH, without assistance of a physical control format indicator channel, PCFICH; wherein the determining the starting symbol for the PDSCH comprises: initializing the starting symbol for the PDSCH as symbol 3; and if determining that an interference of the PDSCH is greater than a threshold, performing blind detection to determine whether to modify the starting symbol for the PDSCH.
A three-dimensional, 3D, image display apparatus comprising: a light source (S); a light guide plate (LGP) configured to guide light irradiated from the light source, and comprising an exit surface through which the light exits; and a diffractor (D) provided on the exit surface of the light guide plate and comprising gratings configured to adjust an exit direction of the light; characterized by : a reflection plate provided on at least a part of an edge of the exit surface of the light guide plate; and a display panel configured to form an image by using the light exited through the diffractor; wherein an edge of the display panel is bonded (B) to the reflection plate, or interfaces between the display panel and the reflection plate are bonded to each other. a light source (S); a light guide plate (LGP) configured to guide light irradiated from the light source, and comprising an exit surface through which the light exits; and a diffractor (D) provided on the exit surface of the light guide plate and comprising gratings configured to adjust an exit direction of the light; characterized by : a reflection plate provided on at least a part of an edge of the exit surface of the light guide plate; and a display panel configured to form an image by using the light exited through the diffractor; wherein an edge of the display panel is bonded (B) to the reflection plate, or interfaces between the display panel and the reflection plate are bonded to each other. a reflection plate provided on at least a part of an edge of the exit surface of the light guide plate; and a display panel configured to form an image by using the light exited through the diffractor; wherein an edge of the display panel is bonded (B) to the reflection plate, or interfaces between the display panel and the reflection plate are bonded to each other.
Redox flow battery for storing of electrical energy comprising a reaction cell having two electrode chambers for catholyte and anolyte, which are each connected to at least one store for liquid and are separated by a semipermeable membrane that is impermeable for the redox pair in the catholyte, and which are equipped with electrodes, wherein the electrode chambers are each filled with electrolyte solutions comprising redox-active components in liquid state, dissolved or dispersed in an aqueous electrolyte solvent, as well as optionally conducting salts dissolved therein and optionally further additives, and wherein the catholyte comprises as a redox-active component a compound comprising at least one residue of formula I in the molecule wherein the line going off the 4-position in the structure of formula I represents a covalent bond connecting the structure of formula I with the remainder of the molecule, and R 1 , R 2 , R 3 and R 4 independently of one another represent alkyl, cycloalkyl, aryl or aralkyl, characterized in that the anolyte comprises zinc salt as redox-active component.
A press-formed product that is made from a metal plate having a tensile strength of 590 MPa or more, and that comprises a pair of flat sections and a bend section that connects the pair of flat sections , characterized in that : at a cross section, a plate thickness increases as a distance from a vicinity of a top part of the bend section increases, the plate thickness decreases as a distance from a vicinity of an end of the bend section increases, and thereafter the plate thickness increases again, and beyond a position separated by a distance corresponding to 1.5 times an original plate thickness (to) from a position of an end of the bend section, the plate thickness becomes the original plate thickness (to).
A rail profile , which is in the form of a hollow profile of a crane-supporting rail and has a guide , formed in a longitudinal direction in a central cavity , for accommodating a crane trolley , wherein the rail profile additionally has at least one accommodating device for accommodating at least one energy chain , wherein the at least one accommodating device is integrated in the rail profile and extends in the longitudinal direction thereof, wherein the at least one accommodating device for accommodating the energy chain is arranged laterally along the central cavity .
A reinforced medico-surgical tube having a shaft of a first, plastics material reinforced along at least a part of its length by a helical member of a second, stiffer material and embedded with the first material, wherein the helical member has a longitudinal path along a part at least of its length extending transversely of the turns of the helical member , wherein the tube includes an elongate member extended along a part at least of the length of the longitudinal path so that a part at least of the thickness of the elongate member is received in the longitudinal path , and characterised in that the longitudinal path is provided by an indentation in the helical member .
Scan abutment for determining the position (x,y,z-coordinates) of the front face (1.1) of a dental endosseous implant , the abutment having an elongated, hollow shaft , the shaft having an upper region (4.1), a central region (4.2) and a lower region (4.3), the shaft having a pedestal in the central region (4.2) having a planar bottom side (3.2), the lower region (4.3) of the shaft adjoining to which, and the shaft with at least a part of the bottom side (3.2) of the central region (4.2) being attachable onto the front face (1.1) of the implant , and the lower region (4.3) being insertable into the connection geometry of the implant, and the elongated, hollow shaft being formed from a side wall , the shaft , in its central region (4.2) and lower region (4.3), having at least two slits in the side wall extending in the side wall in terminal direction to the bottom side of the shaft, the scan abutment being an integral piece of material.
A pharmaceutical tablet composition comprising a core and at least one coating layer wherein the core comprises 70 to 93% of colesevelam by weight of the core and microcrystalline cellulose as a diluent; the concentration ratio of colesevelam to microcrystalline cellulose is in the range of between 15:1 and 1:0,5 and the particles of colesevelam have d 90 value less than 150 μm.
Method for commanding a lighting device of a host motor vehicle to emit a road-illuminating beam (FP) that illuminates the road but that does not cause glare to a target object on this road; the method comprising the following steps: - acquiring (E1, E2, E3), by means of a sensor system of the host motor vehicle, the position (x cible_t0 , y cible_t0 ) of the target object on the road at a given time (t 0 ); - predicting (E4, E5A), by means of a predicting unit, the position (x cible_t1 , y cible_t1 ), of the target object on the road at a time (t 1 ) that is in the future with respect to the given time; - correcting (E6A, E7A), by means of the predicting unit, the target-object position acquired at a given time depending on the predicted position at the future time; - generating (E8), by means of the lighting device, in a beam for illuminating the road that said device emits, a region (Z) that does not cause glare, depending on the corrected position (P G , P D ) of the target object, and - in which method the predicting step (E4, E5A) comprises a sub-step (E4) of modelling a path (TP) of the host vehicle , the method being characterized in that said path (TP) of the host vehicle is modelled from its position (x hôte , y hôte ) at the given time (t 0 ) of the acquiring step, to the position (x cible_t0 , y cible_t0 ) of the target object acquired in said acquiring step, and in that said path (TP) is modelled by a third-degree polynomial the coefficients (c 0 ,c 1 ,c 2 ,c 3 ) of which are determined depending on the curvature of the road level with the host vehicle at the given time (t 0 ), and on the speeds and position of the host vehicle and of the target object. - acquiring (E1, E2, E3), by means of a sensor system of the host motor vehicle, the position (x cible_t0 , y cible_t0 ) of the target object on the road at a given time (t 0 ); - predicting (E4, E5A), by means of a predicting unit, the position (x cible_t1 , y cible_t1 ), of the target object on the road at a time (t 1 ) that is in the future with respect to the given time; - correcting (E6A, E7A), by means of the predicting unit, the target-object position acquired at a given time depending on the predicted position at the future time; - generating (E8), by means of the lighting device, in a beam for illuminating the road that said device emits, a region (Z) that does not cause glare, depending on the corrected position (P G , P D ) of the target object, and - in which method the predicting step (E4, E5A) comprises a sub-step (E4) of modelling a path (TP) of the host vehicle , the method being characterized in that said path (TP) of the host vehicle is modelled from its position (x hôte , y hôte ) at the given time (t 0 ) of the acquiring step, to the position (x cible_t0 , y cible_t0 ) of the target object acquired in said acquiring step, and in that said path (TP) is modelled by a third-degree polynomial the coefficients (c 0 ,c 1 ,c 2 ,c 3 ) of which are determined depending on the curvature of the road level with the host vehicle at the given time (t 0 ), and on the speeds and position of the host vehicle and of the target object.
A medical device for the insertion of a tube, with which a tube is adapted to be introduced from the oral or nasal cavity to the oesophagus of a patient ; wherein the device comprises tubing and an inlet body , characterised in that the inlet body is shaped like a truncated cone with an upper end of the inlet body wider than a lower end of the inlet body, the inlet body further configured to be arranged between the posterior pharynx and the upper third of the oesophagus of a patient, and wherein said inlet body is joined to the tubing at a point along the vertical dimension thereof; the tubing and the inlet body also being in connection through a through hole which communicates them internally, and wherein the inlet body has, at the upper end thereof, an inlet mouth configured to receive and guide a tube adapted to come from either the oral or nasal cavity and subsequently guided to the oesophagus.
A composition containing at least one compound of the following formula I R-SOa-S-R' (I), where a is equal to 1 or 2 and R and R' are, independently of each other, a linear or branched C 1 - C 5 alkyl group, for daily use or more regular use, over at least eight days, in preventing bacterial infections in aquatic animals bred in aquaculture structures, said at least one above-mentioned compound being 0.003 wt.% based on the total weight of the composition. where a is equal to 1 or 2 and R and R' are, independently of each other, a linear or branched C 1 - C 5 alkyl group, for daily use or more regular use, over at least eight days, in preventing bacterial infections in aquatic animals bred in aquaculture structures, said at least one above-mentioned compound being 0.003 wt.% based on the total weight of the composition.
Lighting device for a motor vehicle, comprising a support , a first lighting module and a second lighting module distinct from the first lighting module, each lighting module being mounted om the support via pivoting elements defining a first axis of rotation (AA') and a second axis of rotation (BB') which are specific to each of the modules, and wherein drive elements connecting the two lighting modules are provided for driving the first lighting module in pivoting according to the pivoting of the second lighting module , said lighting device further comprising an actuating device configured to apply a first force (F1), in a first direction, to the second lighting module , the drive elements being configured to convert the first force (F1) into a second force (F2) applied, in a second direction distinct from the first direction of the first force, to the first lighting module ; the drive elements comprising at least a first mount to which the second lighting module is fixed, the first mount being mounted with the ability to pivot on the support about the second axis of rotation (BB'), and a second mount configured to apply the second force (F2) in the second direction to the first lighting module , the second mount is mounted with the ability to pivot on the support about a third axis of rotation (CC'), characterized in that the second mount is connected to the first mount via a slideway connection with clearance to allow the second mount to be driven by the first mount . said lighting device further comprising an actuating device configured to apply a first force (F1), in a first direction, to the second lighting module , the drive elements being configured to convert the first force (F1) into a second force (F2) applied, in a second direction distinct from the first direction of the first force, to the first lighting module ; the drive elements comprising at least a first mount to which the second lighting module is fixed, the first mount being mounted with the ability to pivot on the support about the second axis of rotation (BB'), and a second mount configured to apply the second force (F2) in the second direction to the first lighting module , the second mount is mounted with the ability to pivot on the support about a third axis of rotation (CC'), characterized in that the second mount is connected to the first mount via a slideway connection with clearance to allow the second mount to be driven by the first mount .
A method for communicating data representing spatially localized information to a mobile terminal in relation to the location of said mobile terminal in a sales area equipped with a distributed series of electronic labels , each electronic label being identified by a unique label identifier particular to said label, said method comprising the steps in which: - a mobile terminal sets up a communication (S1) via radio-frequency with a radio-frequency peripheral of an electronic label , - the radio-frequency peripheral of said electronic label communicates (S2) to said mobile terminal a label identifier of said electronic label , - the mobile terminal communicates (S3) said label identifier to a central server , said central server comprising a planogram associating with each label identifier a unique location particular to it, said unique location comprising a height of said electronic label in a shelving of the sales area, - the central server determines (S4) a location of said mobile terminal from the label identifier of said electronic label , using data of the planogram associating with the label identifier a unique location particular to the label identifier, the thus determined location of said mobile terminal comprising a height of said mobile terminal determined from the height of said electronic label , - the central server communicates (S5) to the mobile terminal data representing spatially localized information associated with the location of said mobile terminal . - a mobile terminal sets up a communication (S1) via radio-frequency with a radio-frequency peripheral of an electronic label , - the radio-frequency peripheral of said electronic label communicates (S2) to said mobile terminal a label identifier of said electronic label , - the mobile terminal communicates (S3) said label identifier to a central server , said central server comprising a planogram associating with each label identifier a unique location particular to it, said unique location comprising a height of said electronic label in a shelving of the sales area, - the central server determines (S4) a location of said mobile terminal from the label identifier of said electronic label , using data of the planogram associating with the label identifier a unique location particular to the label identifier, the thus determined location of said mobile terminal comprising a height of said mobile terminal determined from the height of said electronic label , - the central server communicates (S5) to the mobile terminal data representing spatially localized information associated with the location of said mobile terminal .
A Base Transceiver Station, BTS configured for wireless communication with a User Equipment, UE in a wireless communication system , which BTS comprises a Multiple Input Multiple Output, MIMO, antenna array configured for beamforming and MIMO transmission, the BTS further comprising: a processing circuit , configured for supporting separate downlink precoding for control plane and user plane by modifying phase excitation of the MIMO antenna array and causing a transceiver to create an antenna beam by providing different phase for each antenna element of the MIMO antenna array ; and a transceiver , configured for transmitting a signal in the antenna beam via the MIMO antenna array , to be received by the UE ; wherein the processing circuit is further configured to modify the downlink antenna pattern for the control plane signals and channels that define the cell with downlink precoders based on different antenna beams from omni, semi omni, sector and dual beams with different spatial directions, dependent on environment and deployment of the BTS , and to use individual spatial de-correlated downlink MIMO beams with precoders for UE plane channels; wherein the MIMO antenna array comprises an array with vertical polarized monopole omni directional antenna elements in single or several layers with each layer having four antenna elements forming a quadratic structure. a processing circuit , configured for supporting separate downlink precoding for control plane and user plane by modifying phase excitation of the MIMO antenna array and causing a transceiver to create an antenna beam by providing different phase for each antenna element of the MIMO antenna array ; and a transceiver , configured for transmitting a signal in the antenna beam via the MIMO antenna array , to be received by the UE ; wherein the processing circuit is further configured to modify the downlink antenna pattern for the control plane signals and channels that define the cell with downlink precoders based on different antenna beams from omni, semi omni, sector and dual beams with different spatial directions, dependent on environment and deployment of the BTS , and to use individual spatial de-correlated downlink MIMO beams with precoders for UE plane channels; wherein the MIMO antenna array comprises an array with vertical polarized monopole omni directional antenna elements in single or several layers with each layer having four antenna elements forming a quadratic structure.