mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic speed detection system for a moving object of an elevator, the moving object moving vertically within a hoistway of the elevator, the speed detection system comprising: an accelerometer adapted to be coupled to a moving object ; a hybrid altimeter comprising: a first pressure sensor coupled to the moving object and a plurality of second pressure sensors , each of said plurality of second pressure sensors at a separate fixed location within the hoistway, and each of the plurality of second pressure sensors providing atmospheric pressures corresponding to those separate fixed locations; and a controller comprising a memory and a processor , the memory storing computer program instructions executable by the processor to cause the electronic speed detection system to: determine a normalized position (NP) based on first inputs received from the first pressure sensor and the plurality of second pressure sensors of the hybrid altimeter , determine a corrected velocity based on: a second input received from the accelerometer and the normalized position (NP) to correct for an accelerometer offset of the accelerometer , and cause the electronic speed detection system to apply the corrected velocity to the moving object to monitor a potential for over speed by the moving object by comparing an expected speed stored in the memory to the corrected velocity. an accelerometer adapted to be coupled to a moving object ; a hybrid altimeter comprising: a first pressure sensor coupled to the moving object and a plurality of second pressure sensors , each of said plurality of second pressure sensors at a separate fixed location within the hoistway, and each of the plurality of second pressure sensors providing atmospheric pressures corresponding to those separate fixed locations; and a controller comprising a memory and a processor , the memory storing computer program instructions executable by the processor to cause the electronic speed detection system to: determine a normalized position (NP) based on first inputs received from the first pressure sensor and the plurality of second pressure sensors of the hybrid altimeter , determine a corrected velocity based on: a second input received from the accelerometer and the normalized position (NP) to correct for an accelerometer offset of the accelerometer , and cause the electronic speed detection system to apply the corrected velocity to the moving object to monitor a potential for over speed by the moving object by comparing an expected speed stored in the memory to the corrected velocity. determine a normalized position (NP) based on first inputs received from the first pressure sensor and the plurality of second pressure sensors of the hybrid altimeter , determine a corrected velocity based on: a second input received from the accelerometer and the normalized position (NP) to correct for an accelerometer offset of the accelerometer , and cause the electronic speed detection system to apply the corrected velocity to the moving object to monitor a potential for over speed by the moving object by comparing an expected speed stored in the memory to the corrected velocity.
Analysis device (DA) for a system (SI) comprising at least two display means (Plj, EAj) responsible for displaying new images, at least two graphic cards (CGj) responsible for defining said new images respectively for said display means (Plj, EAj), and synchronisation means (MS) capable of synchronising the instants of definition of identical new images by said graphic cards (CGj), characterised in that it comprises i) at least two sensors (Cj) associated respectively with said display means (Plj), EAj) and each capable of generating a main signal representative of a new image in the event of detection of the display of such a new image by the said associated display means (Plj, EAj), and ii) analysis means (MA) capable of determining a first instant of reception of each of the said main signals, then, when first determined instants of reception are representative of the same new image, of determining a first time difference between the said first determined instants of reception.
A multi-beam-former for an antenna array, the multi-beam former comprising: N transceiver terminals (I1, I2, I3, I4) for connecting a transmitter and/or receiver and N antenna terminals (A1, A2, A3, A4) for connecting to a respective antenna; a plurality of couplers and matrix phase shifters arranged in a NxN Butler matrix configuration between the N transceiver terminals and the N antenna terminals, at least some of the matrix phase shifters comprising a switchable matrix phase shifter configured to switch between a respective first phase shift value and a respective second phase shift value; a plurality of bypassable phase shifters arranged between at least some of the couplers and the antenna terminals and configured to switch between a respective further phase shift value and a phase shift bypass; wherein the multi-beam former is operable to select one of M different beam angles for a signal and wherein M is greater than N; and wherein for each of the switchable matrix phase shifters, the respective first phase shift value is half the respective second phase shift value, and for each of the bypassable phase shifters, the respective further phase shift value is equal to a phase shift value of at least one of the matrix phase shifters. N transceiver terminals (I1, I2, I3, I4) for connecting a transmitter and/or receiver and N antenna terminals (A1, A2, A3, A4) for connecting to a respective antenna; a plurality of couplers and matrix phase shifters arranged in a NxN Butler matrix configuration between the N transceiver terminals and the N antenna terminals, at least some of the matrix phase shifters comprising a switchable matrix phase shifter configured to switch between a respective first phase shift value and a respective second phase shift value; a plurality of bypassable phase shifters arranged between at least some of the couplers and the antenna terminals and configured to switch between a respective further phase shift value and a phase shift bypass; wherein the multi-beam former is operable to select one of M different beam angles for a signal and wherein M is greater than N; and wherein for each of the switchable matrix phase shifters, the respective first phase shift value is half the respective second phase shift value, and for each of the bypassable phase shifters, the respective further phase shift value is equal to a phase shift value of at least one of the matrix phase shifters.
Device for the hygienic disposal of human excretions, having pants made from a gastight and liquid tight and elastic material with a waist band and leg bands , wherein the pants are provided with at least one extraction hose connectable with an extraction device or connectable with something similar, characterised in that the pants have an inner side coated with open-pore foam and/or with elastic nubs and a device allowing entry of liquid and wherein the waist band and the leg bands have inserts of open-pore foam on the inside.
A multimeric polypeptide comprising: a heterodimeric polypeptide comprising: a) a first polypeptide comprising, in order from N-terminus to C-terminus: i) a peptide epitope; and ii) a first major class II histocompatibility complex (MHC) polypeptide; b) a second polypeptide comprising a second class II MHC polypeptide, and c) at least one immunomodulatory polypeptide, wherein the first and/or the second polypeptide comprises the at least one immunomodulatory polypeptide, wherein the peptide epitope is an epitope of a self antigen, and optionally, wherein the multimeric polypeptide comprises an immunoglobulin (Ig) Fc polypeptide or a non-Ig scaffold. a heterodimeric polypeptide comprising: a) a first polypeptide comprising, in order from N-terminus to C-terminus: i) a peptide epitope; and ii) a first major class II histocompatibility complex (MHC) polypeptide; b) a second polypeptide comprising a second class II MHC polypeptide, and c) at least one immunomodulatory polypeptide, a) a first polypeptide comprising, in order from N-terminus to C-terminus: i) a peptide epitope; and ii) a first major class II histocompatibility complex (MHC) polypeptide; i) a peptide epitope; and ii) a first major class II histocompatibility complex (MHC) polypeptide; b) a second polypeptide comprising a second class II MHC polypeptide, and c) at least one immunomodulatory polypeptide, wherein the first and/or the second polypeptide comprises the at least one immunomodulatory polypeptide, wherein the peptide epitope is an epitope of a self antigen, and optionally, wherein the multimeric polypeptide comprises an immunoglobulin (Ig) Fc polypeptide or a non-Ig scaffold.
Method for hand tracking at a manual assembly workstation , which has a working surface and a depth camera , which is connected to a control unit , wherein the control unit detects actual depth images in a detection area by means of the depth camera , wherein the working surface is at least partially in the detection area , wherein the control unit detects a reference depth image of the detection area by means of the depth camera , and wherein the control unit provides at least one reference line in the detection area , wherein a structure that has been introduced into the detection area is detected by the control unit in that the actual depth images are compared with the reference depth image by the control unit , and wherein the control unit detects the structure as at least one arm if the structure seen in a detected actual depth image has a connection with the reference line , in that the structure touches, intersects or covers the reference line , and/or if the structure seen in a detected actual depth image has a predetermined minimum surface area.
Composition for an abradable seal for a turbomachine , in particular in powder form, said seal being able to crumble in the event of contact with a rotor of said turbomachine , the composition comprising: - a metallic phase with a mass majority of aluminium, - a second phase comprising a mineral material and/or an organic material; characterised in that the metal phase further comprises chromium and nickel, the metal phase comprising more chromium than nickel in mass. - a metallic phase with a mass majority of aluminium, - a second phase comprising a mineral material and/or an organic material;
Speed monitoring device for measuring a rotational frequency or rotational speed of a main drive shaft of a passenger transportation system , comprising: - at least one rotational speed sensor having an input shaft ; - a tapping device which is configured in such a way that it can be arranged on a shaft casing surface of the main drive shaft of a passenger transportation system of which the rotational frequency is to be measured; and - a bracket for attaching the rotational speed sensor in a fixed position relative to an axis of rotation of the tapping device , the speed monitoring device further comprising a pinion which is mechanically connected to the input shaft so that a rotation of the pinion is transmitted to the input shaft ; the tapping device having a gearing which can be coupled to the pinion in a rotation-transmitting manner; the pinion being rotatably mounted in the bracket at two bearing points and the tapping device being designed to be attached to a side flank of a shaft shoulder of the main drive shaft , characterized in that the tapping device comprises an annular, split adapter and the gearing being arranged on an inner surface of the tapping device . - at least one rotational speed sensor having an input shaft ; - a tapping device which is configured in such a way that it can be arranged on a shaft casing surface of the main drive shaft of a passenger transportation system of which the rotational frequency is to be measured; and - a bracket for attaching the rotational speed sensor in a fixed position relative to an axis of rotation of the tapping device , the speed monitoring device further comprising a pinion which is mechanically connected to the input shaft so that a rotation of the pinion is transmitted to the input shaft ; the tapping device having a gearing which can be coupled to the pinion in a rotation-transmitting manner; the pinion being rotatably mounted in the bracket at two bearing points and the tapping device being designed to be attached to a side flank of a shaft shoulder of the main drive shaft , characterized in that the tapping device comprises an annular, split adapter and the gearing being arranged on an inner surface of the tapping device .
A cordierite honeycomb structure including a cordierite component and comprising partition walls defining a plurality of cells which extend from one end face to the other end face and become through channels for a fluid, wherein a thermal expansion coefficient of the cordierite honeycomb structure in a central axis direction (A) is 1.2 ppm/K or more and 3.5 ppm/K or less in a temperature range of 40°C to 800°C, a thermal expansion coefficient in a cross-sectional direction orthogonal to the central axis direction (A) is 0.8 ppm/K or more and 2.5 ppm/K or less in the temperature range of 40°C to 800°C, the thermal expansion coefficient in the cross-sectional direction orthogonal to the central axis direction (A) is lower than the thermal expansion coefficient in the central axis direction (A), and the partition walls of the cordierite honeycomb structure have a porosity in the range of 10% to less than 40%, wherein said cordierite component contains three components of silicon, aluminum and magnesium as constitutional elements and an oxide total ratio of the three components is defined as 100%: a ratio of silicon oxide is 50% or more and 65% or less, a ratio of aluminum oxide is 18% or more and 36% or less, and a ratio of magnesium oxide is 8% or more and 21% or less. a ratio of silicon oxide is 50% or more and 65% or less, a ratio of aluminum oxide is 18% or more and 36% or less, and a ratio of magnesium oxide is 8% or more and 21% or less.
Closure device associated with a bottle comprising an internally hollow cylindrical portion associated with the bottle mouth, a concave upper portion , so as to form a cavity inside the device to contain a first substance to be mixed with a second substance present in the bottle, a closure element inferiorly closing the cavity, to keep the first substance in the cavity protected against external agents, wherein such concave portion is of a flexible material which, when pressed, crushes the contents of the cavity against the lower closure element, breaking the same and letting the first substance drop inside the bottle, wherein the diameter of the concave portion is slightly smaller than the diameter of the cylindrical portion , so as to form an annular edge both inside and outside the device to which said closure element is constrained, characterised in that said closure element is a disk whose perimeter is heat-sealed inside said cavity to the annular edge , said closure element is coupled to the concave portion by inserting it within the device and constraining it by heat-sealing to the annular edge , below the closure element there is an annular gasket placed between the device and the mouth of the bottle to guarantee the seal with the liquid present in the bottle. wherein such concave portion is of a flexible material which, when pressed, crushes the contents of the cavity against the lower closure element, breaking the same and letting the first substance drop inside the bottle, wherein the diameter of the concave portion is slightly smaller than the diameter of the cylindrical portion , so as to form an annular edge both inside and outside the device to which said closure element is constrained, characterised in that said closure element is a disk whose perimeter is heat-sealed inside said cavity to the annular edge , said closure element is coupled to the concave portion by inserting it within the device and constraining it by heat-sealing to the annular edge , below the closure element there is an annular gasket placed between the device and the mouth of the bottle to guarantee the seal with the liquid present in the bottle.
A first device in a wireless communication system supporting ranging capability, the first device comprising: a processor configured to generate a ranging control message, RCM, comprising a multiple message receipt confirmation request, MMRCR, information, the MMRCR information indicating whether multiple message receipt confirmation is requested or not; a transceiver (210a...n) operably connected to the processor, the transceiver configured to transmit, to a second device , the generated RCM in a ranging block including a plurality of ranging rounds; and receive, from the second device , a multiple message receipt confirmation message, MMRCM, to confirm receipt of multiple messages, wherein the MMRCM comprises a Ranging Multiple Message Receipt Confirmation IE, RMMRC IE, that includes an MMRC list length field and an MMRC list field, and the MMRC list length field indicates a number of elements in the MMRC list field, and the MMRC list field comprises an address field, an MMRC bitmap length field, and an MMRC bitmap field comprising a binary bitmap string. a processor configured to generate a ranging control message, RCM, comprising a multiple message receipt confirmation request, MMRCR, information, the MMRCR information indicating whether multiple message receipt confirmation is requested or not; a transceiver (210a...n) operably connected to the processor, the transceiver configured to transmit, to a second device , the generated RCM in a ranging block including a plurality of ranging rounds; and receive, from the second device , a multiple message receipt confirmation message, MMRCM, to confirm receipt of multiple messages, wherein the MMRCM comprises a Ranging Multiple Message Receipt Confirmation IE, RMMRC IE, that includes an MMRC list length field and an MMRC list field, and the MMRC list length field indicates a number of elements in the MMRC list field, and the MMRC list field comprises an address field, an MMRC bitmap length field, and an MMRC bitmap field comprising a binary bitmap string.
A crushing device, comprising at least one crushing roll rotatably mounted in a machine frame (I), comprising at least one crushing tool arranged thereon and comprising at least one counter-blade working together with the crushing tool and having at least one sieve device for the crushed material, the housing of which at least partially surrounds the crushing roll , wherein the sieve device and counter-blade form a common assembly, wherein the counter-blade is plate-shaped and has recesses (3/5) which are formed corresponding to the shape of the crushing tools of the crushing device , wherein the counter-blade is formed from a plurality of individual counter-blades (3/3), which are fastened individually to the sieve device , wherein individual counter-blades (3/3) form a comb plate, wherein the individual counter-blades (3/3) can be fixed to and/or on a lower body (3/4) by fastening means, wherein a screw is provided as fastening means, which is guided through a bore (3/5) in the lower body (3/4), wherein a bore is provided in the individual counter-blade (3/3), which is arranged corresponding to the bore (3/5), characterized in that the counter-blades (3/3) on the lower body (3/4) are hinged and in that the counter-blades (3/3) can be placed approximately perpendicular in the lower body (3/4) and can then be pivoted downward, whereby they can be partially locked to the lower body (3/4).
An induction heating system comprising: an induction heating device configured to move relative to a workpiece , to generate induction heat, and to direct the induction heat to the workpiece ; and a travel sensor assembly configured to detect a position, movement, or direction of movement of the induction heating device relative to the workpiece , wherein the travel sensor assembly comprises a contacting detection mechanism adapted to contact the workpiece as the induction heating device moves relative to the workpiece ; characterized in that the travel sensor assembly is removably detachable from the induction heating device ; and that a force adjustment mechanism is configured to vary an amount of force between the contacting detection mechanism and the workpiece , wherein the force adjustment mechanism comprises a biasing member configured to enable the travel sensor assembly to maintain contact between the travel sensor assembly and the workpiece while maintaining detection of the position, movement or directon of movement of the induction heating device relative to the workpiece . an induction heating device configured to move relative to a workpiece , to generate induction heat, and to direct the induction heat to the workpiece ; and a travel sensor assembly configured to detect a position, movement, or direction of movement of the induction heating device relative to the workpiece , wherein the travel sensor assembly comprises a contacting detection mechanism adapted to contact the workpiece as the induction heating device moves relative to the workpiece ; characterized in that the travel sensor assembly is removably detachable from the induction heating device ; and that a force adjustment mechanism is configured to vary an amount of force between the contacting detection mechanism and the workpiece , wherein the force adjustment mechanism comprises a biasing member configured to enable the travel sensor assembly to maintain contact between the travel sensor assembly and the workpiece while maintaining detection of the position, movement or directon of movement of the induction heating device relative to the workpiece .
An optical material comprising: a silica host; and a Praseodymium dopant; wherein the Praseodymium atoms are configured to form nanoclusters in the silica host; wherein the nanoclusters are configured to have excited state absorption, ESA, which allows gain in the 1.3 micron wavelength region; and wherein the nanoclusters are encapsulated in a low phonon energy shell to minimize energy transfer to the host matrix. a silica host; and a Praseodymium dopant; wherein the Praseodymium atoms are configured to form nanoclusters in the silica host; wherein the nanoclusters are configured to have excited state absorption, ESA, which allows gain in the 1.3 micron wavelength region; and wherein the nanoclusters are encapsulated in a low phonon energy shell to minimize energy transfer to the host matrix.