mhurhangee/patent-ind-claim-en huggingface dataset:
A self-climbing installation platform for installing an elevator during construction of a building, the self-climbing installation platform comprises two decks being positioned upon each other, each deck comprising guide means for supporting the deck movably on guide rails and locking means for locking and unlocking the deck to the guide rails and/or to guide rail fixing means , lifting means for moving the two decks along the guide rails in relation to each other, at least one power source providing power to the lifting means , the installation platform being arranged to climb stepwise along the guide rails by alternatingly locking and unlocking the lower deck and the upper deck to the guide rails and/or to the guide rail fixing means with the respective locking means and thereafter raising the unlocked deck with the lifting means , characterized in that the self-climbing installation platform is provided with at least one guide rail magazine for storing guide rail elements and at least one bracket magazine for storing brackets for the installation of said guide rail elements. two decks being positioned upon each other, each deck comprising guide means for supporting the deck movably on guide rails and locking means for locking and unlocking the deck to the guide rails and/or to guide rail fixing means , lifting means for moving the two decks along the guide rails in relation to each other, at least one power source providing power to the lifting means , the installation platform being arranged to climb stepwise along the guide rails by alternatingly locking and unlocking the lower deck and the upper deck to the guide rails and/or to the guide rail fixing means with the respective locking means and thereafter raising the unlocked deck with the lifting means , characterized in that the self-climbing installation platform is provided with at least one guide rail magazine for storing guide rail elements and at least one bracket magazine for storing brackets for the installation of said guide rail elements.
An optical communication cable bundle comprising: a plurality of optical fiber subunits , each subunit comprising an optical fiber ribbon, each optical fiber subunit having a subunit jacket defining a subunit passage , wherein the fiber ribbon is located within the subunit passage ; and a bundle jacket surrounding the optical fiber subunits , the bundle jacket including an inner surface defining a bundle passage and an outer surface defining an exterior surface; wherein the bundle jacket has a thickness between 0.05 mm and 0.35 mm and a tensile strength that is less than 2000 psi, wherein the thickness of the bundle jacket is less than a thickness of each of the subunit jackets , and wherein the bundle jacket is formed from an extrudable PVC material having a limiting oxygen index of less than 40%, wherein the subunit jackets have a limiting oxygen index greater than 40%, wherein the bundle jacket is extruded around subunits , wherein bundle jacket applies a relatively low, inward, radially-directed force onto subunits that is sufficient to hold subunits together in bundle , but is not sufficient to hold subunits in fixed positions relative to each other within bundle jacket . a plurality of optical fiber subunits , each subunit comprising an optical fiber ribbon, each optical fiber subunit having a subunit jacket defining a subunit passage , wherein the fiber ribbon is located within the subunit passage ; and a bundle jacket surrounding the optical fiber subunits , the bundle jacket including an inner surface defining a bundle passage and an outer surface defining an exterior surface; wherein the bundle jacket has a thickness between 0.05 mm and 0.35 mm and a tensile strength that is less than 2000 psi, wherein the thickness of the bundle jacket is less than a thickness of each of the subunit jackets , and wherein the bundle jacket is formed from an extrudable PVC material having a limiting oxygen index of less than 40%, wherein the subunit jackets have a limiting oxygen index greater than 40%, wherein the bundle jacket is extruded around subunits , wherein bundle jacket applies a relatively low, inward, radially-directed force onto subunits that is sufficient to hold subunits together in bundle , but is not sufficient to hold subunits in fixed positions relative to each other within bundle jacket .
A method carried out by a user equipment, UE , connected with a base station in a wireless network, the method comprising: selecting an uplink, UL, contention-based, CB, data channel, wherein the UL data channel is selected from a set of preconfigured UL CB data channels; generating an UL data transmission, wherein the UL data transmission includes at least an identification, ID, of the UE and UL data contents; sending the UL data transmission on the selected UL CB data channel to the base station ; and receiving a response for the UL data transmission from the base station , characterized in that the method further comprises, prior to sending the UL data transmission, obtaining a set of demodulation reference signal, DMRS, seeds; selecting a transmission DMRS seed from the set of DMRS seeds; and generating a DMRS using the selected transmission DMRS seed; and in that sending the UL data transmission comprises using the generated DMRS on the selected UL CB data channel. selecting an uplink, UL, contention-based, CB, data channel, wherein the UL data channel is selected from a set of preconfigured UL CB data channels; generating an UL data transmission, wherein the UL data transmission includes at least an identification, ID, of the UE and UL data contents; sending the UL data transmission on the selected UL CB data channel to the base station ; and receiving a response for the UL data transmission from the base station , characterized in that the method further comprises, prior to sending the UL data transmission, obtaining a set of demodulation reference signal, DMRS, seeds; selecting a transmission DMRS seed from the set of DMRS seeds; and generating a DMRS using the selected transmission DMRS seed; and in that sending the UL data transmission comprises using the generated DMRS on the selected UL CB data channel.
A stage apparatus, comprising: a movable unit ; an incremental scale fixed to the movable unit and having a predetermined length shorter than a distance the movable unit can move in a first direction; a first and a second sensor (271a, b) configured to read the scale that are arranged in the first direction with an interval therebetween shorter than the predetermined length; detection means configured to detect an origin point position set in a movable range of the movable unit , wherein the first sensor is arranged closer to the origin point position than the second sensor ; and movement control means configured to perform an origin return operation that moves the movable unit to the origin point position, wherein if the movable unit is at a position at which both the first sensor and the second sensor can read the scale , the movement control means is configured to execute, in the origin return operation, a first movement that causes the movable unit to move a predetermined distance in a direction of the origin point position, and, after the first movement, a second movement that causes the movable unit to move at a lower speed than the first movement until the detection means detects the origin point position, and if the second sensor can read the scale but the first sensor cannot read the scale , the movement control means is configured to execute a third movement that moves the movable unit toward the origin point position, and to execute the first movement when the movable unit comes to a position at which the scale can be read by both of the first sensor and the second sensor . a movable unit ; an incremental scale fixed to the movable unit and having a predetermined length shorter than a distance the movable unit can move in a first direction; a first and a second sensor (271a, b) configured to read the scale that are arranged in the first direction with an interval therebetween shorter than the predetermined length; detection means configured to detect an origin point position set in a movable range of the movable unit , wherein the first sensor is arranged closer to the origin point position than the second sensor ; and movement control means configured to perform an origin return operation that moves the movable unit to the origin point position, wherein if the movable unit is at a position at which both the first sensor and the second sensor can read the scale , the movement control means is configured to execute, in the origin return operation, a first movement that causes the movable unit to move a predetermined distance in a direction of the origin point position, and, after the first movement, a second movement that causes the movable unit to move at a lower speed than the first movement until the detection means detects the origin point position, and if the second sensor can read the scale but the first sensor cannot read the scale , the movement control means is configured to execute a third movement that moves the movable unit toward the origin point position, and to execute the first movement when the movable unit comes to a position at which the scale can be read by both of the first sensor and the second sensor .
Embossing cylinder suitable for receiving a sleeve-shaped embossing die , wherein the embossing cylinder has a body shaped like a hollow cylinder and a tensioning system for expanding the body shaped like a hollow cylinder, characterized in that the body shaped like a hollow cylinder includes a first separation edge (3.1) and a second separation edge (3.2), said separation edges (3.1, 3.2) oriented in the longitudinal direction of the body shaped like a hollow cylinder to form a jacket surface interrupted by a gap , in that the tensioning system for expanding the body shaped like a hollow cylinder includes two rotatable rings supported on the axial ends on the body shaped like a hollow cylinder, in that the rings are connected by a carrier located in the gap , and in that spring elements whose spring force essentially acts in the circumferential direction of the body shaped like a hollow cylinder are engaged with the carrier and the first separation edge (3.1).
A method for forming a naphtha composition and a distillate composition, comprising: exposing a feed comprising oxygenates to a conversion catalyst at an average reaction temperature of 400°C to 530°C, a total pressure of at least 150 psig (~1000 kPag), and a WHSV of 0.1 hr -1 to 10 hr -1 to form a converted effluent comprising a naphtha boiling range fraction, the naphtha boiling range fraction having a boiling range within the range of from 50°F (~10°C) to 350°F (177°C) as measured according to ASTM D2887 and an octane rating of at least 95, wherein the octane rating is defined as (RON + MON)/2 wherein RON is Research Octane Number determined according to ASTM D2699 and MON is Motor Octane Number determined according to ASTM D2700; and cascading at least a portion of the converted effluent to an oligomerization catalyst at a temperature of 125°C to 250°C to form an oligomerized effluent, the at least a portion of the converted effluent comprising ethylene, propylene, or a combination thereof, wherein the at least a portion of the converted effluent is exposed to the oligomerization catalyst at a pressure of 150 psig (~1000 kPag) to 300 psig (~2100 kPag); the oligomerized effluent comprising, relative to a weight of hydrocarbons in the oligomerized effluent, at least 60 wt% of a distillate boiling range fraction, at least 10 wt% of a 371°C+ fraction, and less than 20 wt% of a 177°C- fraction, the distillate boiling range fraction having a boiling range within the range of from 350°F (177°C) to 700°F (371°C) as measured according to ASTM D2887 and an aromatics content of about 1.0 wt% or less. exposing a feed comprising oxygenates to a conversion catalyst at an average reaction temperature of 400°C to 530°C, a total pressure of at least 150 psig (~1000 kPag), and a WHSV of 0.1 hr -1 to 10 hr -1 to form a converted effluent comprising a naphtha boiling range fraction, the naphtha boiling range fraction having a boiling range within the range of from 50°F (~10°C) to 350°F (177°C) as measured according to ASTM D2887 and an octane rating of at least 95, wherein the octane rating is defined as (RON + MON)/2 wherein RON is Research Octane Number determined according to ASTM D2699 and MON is Motor Octane Number determined according to ASTM D2700; and cascading at least a portion of the converted effluent to an oligomerization catalyst at a temperature of 125°C to 250°C to form an oligomerized effluent, the at least a portion of the converted effluent comprising ethylene, propylene, or a combination thereof, wherein the at least a portion of the converted effluent is exposed to the oligomerization catalyst at a pressure of 150 psig (~1000 kPag) to 300 psig (~2100 kPag); the oligomerized effluent comprising, relative to a weight of hydrocarbons in the oligomerized effluent, at least 60 wt% of a distillate boiling range fraction, at least 10 wt% of a 371°C+ fraction, and less than 20 wt% of a 177°C- fraction, the distillate boiling range fraction having a boiling range within the range of from 350°F (177°C) to 700°F (371°C) as measured according to ASTM D2887 and an aromatics content of about 1.0 wt% or less.
An assembly for carrying electrical current in a coil of a magnet, comprising: a pre-formed housing comprising a channel configured to retain HTS tape , the channel including at least one pre-formed curved section; and a plurality of layers of HTS tape fixed within the channel; characterised in that the pre-formed curved section has a radius of curvature which is less than a total thickness of the layers of HTS tape in that section divided by twice a maximum permitted strain of the HTS tape. a pre-formed housing comprising a channel configured to retain HTS tape , the channel including at least one pre-formed curved section; and a plurality of layers of HTS tape fixed within the channel; characterised in that the pre-formed curved section has a radius of curvature which is less than a total thickness of the layers of HTS tape in that section divided by twice a maximum permitted strain of the HTS tape.
An implantable medical device comprising: a power subunit comprising a first biocompatible electrically conductive shell defining an open end, a closed end, and an interior volume; an anode disposed within the interior volume of the first biocompatible electrically conductive shell ; a cathode disposed within the interior volume of the first biocompatible electrically conductive shell; and a lid occluding the open end of the first biocompatible electrically conductive shell; and an electronics control subunit comprising a second biocompatible electrically conductive shell ; a control circuit disposed within the second biocompatible electrically conductive shell ; wherein the power subunit is coupled to the electronics control subunit and the power subunit is in electrical communication with the electronics control subunit; wherein both of the first and second biocompatible electrically conductive shells comprise first and second opposed wide sides ; first and second opposed narrow sides , wherein the narrow sides have a width less than that of the wide sides; and four rounded corners disposed at intersections between each wide side and narrow side; wherein the first biocompatible electrically conductive shell is welded to the lid around a perimeter of the first biocompatible electrically conductive shell forming a weld line ; the weld line having a weld line terminus , wherein the weld line terminus is positioned on a narrow side or a rounded corner. a power subunit comprising a first biocompatible electrically conductive shell defining an open end, a closed end, and an interior volume; an anode disposed within the interior volume of the first biocompatible electrically conductive shell ; a cathode disposed within the interior volume of the first biocompatible electrically conductive shell; and a lid occluding the open end of the first biocompatible electrically conductive shell; and an electronics control subunit comprising a second biocompatible electrically conductive shell ; a control circuit disposed within the second biocompatible electrically conductive shell ; wherein the power subunit is coupled to the electronics control subunit and the power subunit is in electrical communication with the electronics control subunit; wherein both of the first and second biocompatible electrically conductive shells comprise first and second opposed wide sides ; first and second opposed narrow sides , wherein the narrow sides have a width less than that of the wide sides; and four rounded corners disposed at intersections between each wide side and narrow side; wherein the first biocompatible electrically conductive shell is welded to the lid around a perimeter of the first biocompatible electrically conductive shell forming a weld line ; the weld line having a weld line terminus , wherein the weld line terminus is positioned on a narrow side or a rounded corner.
A method for updating personal information by a converged address book, CAB, extensible markup language, XML, document management server , XDMS, in a communication system supporting a CAB service, the method comprising: receiving a request to an import of an external personal profile information from a CAB client ; providing information on the request to a CAB server ; and storing the external personal profile information, imported by the CAB server from a non-CAB system based on the information on the request, as a new personal profile information document in response to an instruction from the CAB server ; wherein the new personal profile information document includes an update type of the external personal profile information, wherein the update type includes a value indicating the import of the external personal profile information; and wherein the new personal profile information document includes an approval type of the external personal profile information, wherein the approval type denotes a 'manual' or 'automatic' update type of the external personal profile information. receiving a request to an import of an external personal profile information from a CAB client ; providing information on the request to a CAB server ; and storing the external personal profile information, imported by the CAB server from a non-CAB system based on the information on the request, as a new personal profile information document in response to an instruction from the CAB server ; wherein the new personal profile information document includes an update type of the external personal profile information, wherein the update type includes a value indicating the import of the external personal profile information; and wherein the new personal profile information document includes an approval type of the external personal profile information, wherein the approval type denotes a 'manual' or 'automatic' update type of the external personal profile information.
A cyber safety system (105; 305) for protecting a site network (127; 225), the cyber safety system (105; 305) being an isolated separate stand-alone system from the site network (127; 225) that it is protecting and comprising: 1.1 a cyber monitoring logic (107; 212) to generate a cyber attack signal (110; 215) in response to a cyber attack event ; and 1.2 a stand-alone automatic segmentation controller (115; 217) to generate a plurality of segmentation voltage signals (117(1-n); 220(1-3)) or a plurality of segmentation messages (137; 218) in response to the cyber attack signal and provide them to a plurality of firewalls (120((1-n); 222(1-3)); and 1.3 the plurality of firewalls (120(1-n); 222(1-3)) configured to invoke firewall rulesets depending upon an input voltage signal level of the plurality of segmentation voltage signals (117(1-n); 220(1-3)) or the plurality of segmentation messages (137; 218) to segment the site network (127; 225) in a plurality of site network segments (130(1-n); 225(1-4)) and to control one or more physical devices as response to the cyber attack event . 1.1 a cyber monitoring logic (107; 212) to generate a cyber attack signal (110; 215) in response to a cyber attack event ; and 1.2 a stand-alone automatic segmentation controller (115; 217) to generate a plurality of segmentation voltage signals (117(1-n); 220(1-3)) or a plurality of segmentation messages (137; 218) in response to the cyber attack signal and provide them to a plurality of firewalls (120((1-n); 222(1-3)); and 1.3 the plurality of firewalls (120(1-n); 222(1-3)) configured to invoke firewall rulesets depending upon an input voltage signal level of the plurality of segmentation voltage signals (117(1-n); 220(1-3)) or the plurality of segmentation messages (137; 218) to segment the site network (127; 225) in a plurality of site network segments (130(1-n); 225(1-4)) and to control one or more physical devices as response to the cyber attack event .
A training device for training the neck muscles, having a training mechanics which can be coupled to a coupling member which can be carried on or around a head of a trainee, the coupling member being rotatable about axes of rotation (R1, R2, R3), and the training mechanics comprising a cross slide for providing two axes of reception (T1, T2), characterized in that the training device has a frame to which the training mechanics is attached, a rail is mounted on the cross slide so as to be height-adjustable and rotatable in such a way that the coupling member can be rotated about the three axes of rotation (R1, R2, R3) by means of the training mechanics and can be translated along three translation axes (T1, T2, T3).
Method for resetting an array of Resistive Memory (RM) cells, that is for putting at least one cell of the array of Resistive Memory (RM) cells in its high resistive state (HRS), by applying a sequence of N reset operations, N being an integer number greater than 2, each reset operation comprising the application of a reset technique being chosen among a set of reset techniques, said method being characterized in that it comprises the following steps: - at the first reset operation (O1), performing the first reset operation (RF) by applying the reset technique having the highest relative correction yield; - at the j-th reset operation (Oj) of the N-1 subsequent reset operations, j being an integer number comprised between 2 and N, defining (Dj) a reset technique to be used at the j-th reset operation and performing the j-th reset operation (Rj); the relative correction yield at a given reset operation being the fraction of cells that, being in the wrong resistive state before the given reset operation, have been corrected by applying the given reset technique at the given reset operation, the relative correction yield for the array of Resistive Memory cells to be reset being measured prior to the first reset operation by performing N reset operations and measuring after each reset operation the resistance of the High-Resistive State (R HRS ) of each cell, for each of the reset techniques and for each of the N reset operations. - at the first reset operation (O1), performing the first reset operation (RF) by applying the reset technique having the highest relative correction yield; - at the j-th reset operation (Oj) of the N-1 subsequent reset operations, j being an integer number comprised between 2 and N, defining (Dj) a reset technique to be used at the j-th reset operation and performing the j-th reset operation (Rj);
Process for enzymatic hydrolysis by sequential feeding in which, under stirring, at least one pretreated lignocellulosic substrate is brought into contact with water and with enzymes in a reactor, said process being characterized in that the sequential addition to the reactor of the pretreated lignocellulosic substrate is carried out and increasingly spaced out over time, so as to obtain a predetermined final dry matter content of between 18% and 30% by weight.