mhurhangee/patent-ind-claim-en huggingface dataset:
A hydraulic system with at least one circulation pump assembly provided with a speed controller , with at least one hydraulic circuit (A, B) which is connected to the circulation pump assembly as well as with at least one mechanical switch device (86, 88; 120, 122; 120", 122") which is impinged with pressure by a fluid in the hydraulic circuit and which can be moved into at least two different switch positions, wherein the at least one mechanical switch device (28; 86, 28; 120, 122) can be moved by the circulation pump assembly by way of a hydraulic coupling via the fluid, and the speed controller is designed to initiate a movement of the switch device (86, 88; 120, 122; 120", 122") by way of at least one hydraulic force which acts upon the switch device (86, 88; 120, 122; 120", 122") and which causes a movement of the switch device (86, 88; 120,122; 120", 122") being produced via a speed adaptation of the circulation pump assembly via the hydraulic circuit, wherein the circulation pump assembly is connected to at least two hydraulic circuits (A, B) and the at least one mechanical switch device (86, 88; 120, 122; 120", 122") is designed as at least one valve with at least one movable valve element (90, 92, 124, 124', 128, 124", 128") for changing the ratio of the flows through the at least two hydraulic circuits (A, B), wherein the at least one valve comprises at least one first and a second control surface, upon which a fluid pressure which is produced by the circulation pump assembly acts, wherein the first control surface is connected to a first valve element and the second control surface to a second valve element so that the valve elements (90, 92, 124, 124', 128, 124", 128") are movable by way of the forces which act upon the first and second control surface, characterised in that the two valve elements have different dynamic characteristics, so that they react differently to differently rapid pressure changes in the system.
A method for preparing an X-ray mask structure, comprising: providing a support substrate consisting of silicon having a top surface and a bottom surface ; forming a top layer on the top surface and a bottom layer having an aperture on the bottom surface ; removing a portion of the support substrate exposed by the aperture of the bottom layer to form at least one thinned portion being surrounded by a wall , the at least one thinned portion consisting of silicon and the wall consisting of the same material as the at least one thinned portion; and forming a plurality of X-ray absorber patterns on the top layer over the at least one thinned portion . providing a support substrate consisting of silicon having a top surface and a bottom surface ; forming a top layer on the top surface and a bottom layer having an aperture on the bottom surface ; removing a portion of the support substrate exposed by the aperture of the bottom layer to form at least one thinned portion being surrounded by a wall , the at least one thinned portion consisting of silicon and the wall consisting of the same material as the at least one thinned portion; and forming a plurality of X-ray absorber patterns on the top layer over the at least one thinned portion .
Use of a titanium phosphate powder comprising plate-shaped crystalline particles of titanium phosphate, wherein the plate-shaped crystalline particles have an average thickness of 0.01 μm or more and less than 0.10 μm, and an aspect ratio that is a value obtained by dividing an average primary particle diameter of the plate-shaped crystalline particles by the average thickness is 5 or more, as an additive or a pigment in cosmetics, in particular as white pigment in cosmetics. the plate-shaped crystalline particles have an average thickness of 0.01 μm or more and less than 0.10 μm, and an aspect ratio that is a value obtained by dividing an average primary particle diameter of the plate-shaped crystalline particles by the average thickness is 5 or more,
Transmission series comprising a first transmission and a second transmission ; wherein the first transmission and the second transmission each have an input shaft , a housing , a support structure fixed in the housing, and at least two bearings by means of which the input shaft is rotatably mounted in the support structure ; wherein the at least two bearings of the first transmission and the at least two bearings of the second transmission are each of identical design; wherein the design of the at least bearings of the first transmission differs from the design of the at least bearings of the second transmission ; and wherein the support structures are structurally identical, characterized in that the support structures are screwed onto an opening in the respective housing . the first transmission and the second transmission each have an input shaft , a housing , a support structure fixed in the housing, and at least two bearings by means of which the input shaft is rotatably mounted in the support structure ; wherein the at least two bearings of the first transmission and the at least two bearings of the second transmission are each of identical design; wherein the design of the at least bearings of the first transmission differs from the design of the at least bearings of the second transmission ; and wherein the support structures are structurally identical, characterized in that the support structures are screwed onto an opening in the respective housing .
An image heating apparatus comprising: an image heating portion having a heater having a substrate and a plurality of heat generating elements (HB1 to HB7) arranged on the substrate in a lengthwise direction of the substrate , the image heating portion heating an image formed on a recording material (P) using heat from the heater ; a power supply control portion which controls power to be supplied to the plurality of heat generating elements (HB1 to HB7) independently from one another; characterized by an acquiring portion which acquires, for each of the plurality of heat generating elements (HB1 to HB7), start-up performance representing temperature rise per unit time when power is supplied thereto, wherein, in a start-up sequence for raising temperatures of the plurality of heat generating elements (HB1 to HB7) to respective prescribed target temperatures, the power supply control portion controls power to be supplied to the plurality of heat generating elements (HB1 to HB7) independently from one another on the basis of the start-up performance acquired by the acquiring portion so that temperature curves of each of the plurality of heat generating elements (HB1 to HB7) are approximated to a start-up target temperature curve and the plurality of heat generating elements (HB1 to HB7) attain the prescribed target temperatures in the same timing. an image heating portion having a heater having a substrate and a plurality of heat generating elements (HB1 to HB7) arranged on the substrate in a lengthwise direction of the substrate , the image heating portion heating an image formed on a recording material (P) using heat from the heater ; a power supply control portion which controls power to be supplied to the plurality of heat generating elements (HB1 to HB7) independently from one another; characterized by an acquiring portion which acquires, for each of the plurality of heat generating elements (HB1 to HB7), start-up performance representing temperature rise per unit time when power is supplied thereto, wherein, in a start-up sequence for raising temperatures of the plurality of heat generating elements (HB1 to HB7) to respective prescribed target temperatures, the power supply control portion controls power to be supplied to the plurality of heat generating elements (HB1 to HB7) independently from one another on the basis of the start-up performance acquired by the acquiring portion so that temperature curves of each of the plurality of heat generating elements (HB1 to HB7) are approximated to a start-up target temperature curve and the plurality of heat generating elements (HB1 to HB7) attain the prescribed target temperatures in the same timing.
A cabinet comprising a cabinet front door , a housing defining an inner depth (E) in a transverse direction (Y), a dispensing outlet for sheet products and an insert dispenser comprising a dispensing opening , said dispenser having an extension (D) in the transverse direction (Y) and comprising a frame partly defining an interior volume for supporting a stack of sheets products, said frame having a frame panel portion extending in a transverse direction (Y) and an abutment panel extending from said frame panel portion in a longitudinal direction (X), said abutment panel having an abutment surface for abutting a cabinet front door inner surface , said dispenser being arranged inside the cabinet with said dispensing opening in alignment with said dispensing outlet of the cabinet and with said abutment surface oriented towards the cabinet front door, wherein the extension (D) of said dispenser in the transverse direction (Y) is larger than the inner depth (E) of said cabinet, as seen in the transverse direction (Y), characterised in that said abutment surface urges said cabinet front door in a direction away from said frame of said dispenser when said cabinet front door is in a closed configuration with said housing of the cabinet.
A honeycomb closed-cellular composite product consisting essentially of multiple layers of a synthetic polyester felt impregnated with a resin system, and multiple layers of synthetic glass fabric impregnated with a resin system, wherein the synthetic glass fabric is bi-directionally and/or uni-directionally oriented, arranged to form a core and an encapsulating layer , wherein the core comprises non-spaced-apart closed-cellular polygonal columnar units stacked alongside one another, wherein the core comprises multiple layers of the synthetic polyester felt and of the synthetic glass fabric, and wherein the encapsulating layer comprises multiple layers of the synthetic polyester felt and of the synthetic glass fabric. multiple layers of a synthetic polyester felt impregnated with a resin system, and multiple layers of synthetic glass fabric impregnated with a resin system, wherein the synthetic glass fabric is bi-directionally and/or uni-directionally oriented, arranged to form a core and an encapsulating layer , wherein the core comprises non-spaced-apart closed-cellular polygonal columnar units stacked alongside one another, wherein the core comprises multiple layers of the synthetic polyester felt and of the synthetic glass fabric, and wherein the encapsulating layer comprises multiple layers of the synthetic polyester felt and of the synthetic glass fabric.
A Communication Device Network Analyzer, CDNA, system for detecting malicious traffic flows in a network , the CDNA system comprising a computer device including at least one processor in communication with at least one memory area , wherein the at least one processor is programmed to: store a plurality of context information about the network including a plurality of satellites ; repeat the following steps for each network configuration based on the times where the network configuration will be active: • determine a network configuration of the network at a specific point in time; • generate one or more security policies for one or more satellites of the plurality of satellites in the network based on the network configuration and the plurality of context information; and • deploy the one or more security policies to the one or more satellites in the network , wherein the one or more satellites are configured to execute an algorithm to monitor communications on the network in view of a corresponding security policy of the one or more security policies. store a plurality of context information about the network including a plurality of satellites ; repeat the following steps for each network configuration based on the times where the network configuration will be active: • determine a network configuration of the network at a specific point in time; • generate one or more security policies for one or more satellites of the plurality of satellites in the network based on the network configuration and the plurality of context information; and • deploy the one or more security policies to the one or more satellites in the network , • determine a network configuration of the network at a specific point in time; • generate one or more security policies for one or more satellites of the plurality of satellites in the network based on the network configuration and the plurality of context information; and • deploy the one or more security policies to the one or more satellites in the network , wherein the one or more satellites are configured to execute an algorithm to monitor communications on the network in view of a corresponding security policy of the one or more security policies.
A high oxidation-resistant alloy having a nominal composition consisting of: Co 9.07 wt% W 9.36 wt% Cr 8.43 wt% Al 5.73 wt% Ti 0.65 wt% Ta 2.93 wt% Mo 0.51 wt% Hf 1.02 wt% Mn up to 0.001 wt% Mg up to 0.060 wt% Si 0.06 wt% B 0.010 wt% Zr 0.012 wt% Fe 0.035 wt% O 0.014 wt% N 0.002 wt% S up to 0.010 wt% C 0.043 wt% Re 0.0 wt% Ni balance based on the alloy weight.
An apparatus for monitoring of a body function and/or a body property of a patient comprising a sensor which determines measurement values with regard to the body function and/or the body property, a unit for detecting a critical condition of the respective body function and/or body property based on the measurement values, a unit for providing alert information to the patient in case a critical condition is detected, preferably optically and/or acoustically, an acknowledgement unit for acknowledging the critical condition and a transmitter for transmitting information with regard to the corresponding body function and/or body property, for example an emergency signal and/or a position information, wherein the transmitter is only activatable in the case, in which after a predefined time period from the detection of the critical condition the acknowledgement unit has not been operated by the patient, wherein the acknowledgement unit comprises a microphone, and a voice recognition unit, arranged such that the voice recognition unit analyzes the sound signal received by the microphone, wherein the acknowledgement unit is adapted to conduct a speech analysis of the received sound signal and to compare it to a predefined word or sentence, and wherein the acknowledgement unit is configured such that acknowledgement can only be made by the patient repeating the predefined word or sentence such that it is ensured that the acknowledgement comes from the patient.
A focus system for focusing a telecentric imaging system of a measuring machine comprising: a camera including a telecentric imaging system and a detector on which images relayed by the telecentric imaging system are formed; the camera being relatively movable with respect to an object intended for measurement along an optical axis of the telecentric imaging system ; the telecentric imaging system being operable in a telecentric mode in which a size of an image of a feature of the object remains substantially constant with relative displacement of the object through a depth of field; the telecentric imaging system also being operable in a non-telecentric mode in which the size of the image of the feature varies as a function of the relative displacement of the object through the depth of field; the telecentric imaging system being adjustable between the telecentric and non-telecentric modes; a processor arranged for extracting size measurements of the image of the feature from images captured by the detector in both the telecentric and non-telecentric modes; and the processor also being arranged for relating the measures of the sizes of the images of the feature in the telecentric and non-telecentric modes to each other and to the function by which the size of the image of the feature varies with the relative displacement of the object through the depth of field as an estimate of a relative displacement of the object from a best focus position. a camera including a telecentric imaging system and a detector on which images relayed by the telecentric imaging system are formed; the camera being relatively movable with respect to an object intended for measurement along an optical axis of the telecentric imaging system ; the telecentric imaging system being operable in a telecentric mode in which a size of an image of a feature of the object remains substantially constant with relative displacement of the object through a depth of field; the telecentric imaging system also being operable in a non-telecentric mode in which the size of the image of the feature varies as a function of the relative displacement of the object through the depth of field; the telecentric imaging system being adjustable between the telecentric and non-telecentric modes; a processor arranged for extracting size measurements of the image of the feature from images captured by the detector in both the telecentric and non-telecentric modes; and the processor also being arranged for relating the measures of the sizes of the images of the feature in the telecentric and non-telecentric modes to each other and to the function by which the size of the image of the feature varies with the relative displacement of the object through the depth of field as an estimate of a relative displacement of the object from a best focus position.
A handle for a cleaner, comprising: a grip member formed to be movable in a forward direction or a backward direction of the cleaner and gripped by a user; a guide module to guide the grip member to move in the forward direction or the backward direction of the cleaner; a handle body coupled to the guide module ; and a pressure sensor to detect pressure generated between the guide module and the handle body , in response to the grip member moving in the forward direction or the backward direction of the cleaner, wherein the guide module is configured to be movable in the forward direction or the backward direction of the cleaner in a state of being coupled to the handle body , the guide module comprising a first plate and a second plate wherein the handle body is located between the first plate and the second plate , characterized in that the handle body is provided with a groove formed in a surface, on which the guide module is disposed, of outer surfaces of the handle body ; and either one of the first and second plates is provided with a rib , the rib being inserted into the groove in the handle body to guide the movement of the guide module . a grip member formed to be movable in a forward direction or a backward direction of the cleaner and gripped by a user; a guide module to guide the grip member to move in the forward direction or the backward direction of the cleaner; a handle body coupled to the guide module ; and a pressure sensor to detect pressure generated between the guide module and the handle body , in response to the grip member moving in the forward direction or the backward direction of the cleaner, wherein the guide module is configured to be movable in the forward direction or the backward direction of the cleaner in a state of being coupled to the handle body , the guide module comprising a first plate and a second plate wherein the handle body is located between the first plate and the second plate , characterized in that the handle body is provided with a groove formed in a surface, on which the guide module is disposed, of outer surfaces of the handle body ; and either one of the first and second plates is provided with a rib , the rib being inserted into the groove in the handle body to guide the movement of the guide module .
A method for operating a glow plug , the method comprising: monitoring a glow plug current (I GPL ) flowing into the glow plug when a glow plug voltage (V GPL ) applied to the glow plug is equal to a nominal voltage (V N ); comparing the glow plug current (I GPL ) to an upper threshold (I 1 ) and a lower threshold (I 2 ) that is less than the upper threshold (I 1 ); maintaining the glow plug voltage (V GPL ) applied to the glow plug at the nominal voltage (V N ) when the glow plug current (I GPL ) is between the upper threshold (I 1 ) and the lower threshold (I 2 ); increasing the glow plug voltage (V GPL ) applied to the glow plug to a second voltage (V H ) that is greater than the nominal voltage (V N ) when the glow plug current (I GPL ) exceeds the upper threshold (I 1 ); and decreasing the glow plug voltage (V GPL ) applied to the glow plug to substantially no voltage when the glow plug current (I GPL ) falls below the lower threshold (I 2 ). monitoring a glow plug current (I GPL ) flowing into the glow plug when a glow plug voltage (V GPL ) applied to the glow plug is equal to a nominal voltage (V N ); comparing the glow plug current (I GPL ) to an upper threshold (I 1 ) and a lower threshold (I 2 ) that is less than the upper threshold (I 1 ); maintaining the glow plug voltage (V GPL ) applied to the glow plug at the nominal voltage (V N ) when the glow plug current (I GPL ) is between the upper threshold (I 1 ) and the lower threshold (I 2 ); increasing the glow plug voltage (V GPL ) applied to the glow plug to a second voltage (V H ) that is greater than the nominal voltage (V N ) when the glow plug current (I GPL ) exceeds the upper threshold (I 1 ); and decreasing the glow plug voltage (V GPL ) applied to the glow plug to substantially no voltage when the glow plug current (I GPL ) falls below the lower threshold (I 2 ).