mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining placement of at least one antenna of customer premises equipment in a fixed wireless access network, the method comprising: generating (S100) a map of signal strength for each of a plurality of possible antenna locations among one or more buildings, wherein the plurality of possible antenna locations is at least one of an indoor antenna location or an outdoor antenna location; identifying (S102) a percentage of a building having a level of wireless network coverage, wherein the identifying of the percentage includes calculating a ratio of a sum of each segment length of considered covered segments of perimeter of the building to the perimeter of the building, wherein the perimeter is divided into said segments, and wherein the segments considered covered receive said level of the wireless network coverage; and determining (S104) a location for placement of said antenna based on the generated map of signal strength and the corresponding identified percentage of the perimeter of the building, wherein the location is determined to get best possible signal strength. generating (S100) a map of signal strength for each of a plurality of possible antenna locations among one or more buildings, wherein the plurality of possible antenna locations is at least one of an indoor antenna location or an outdoor antenna location; identifying (S102) a percentage of a building having a level of wireless network coverage, wherein the identifying of the percentage includes calculating a ratio of a sum of each segment length of considered covered segments of perimeter of the building to the perimeter of the building, wherein the perimeter is divided into said segments, and wherein the segments considered covered receive said level of the wireless network coverage; and determining (S104) a location for placement of said antenna based on the generated map of signal strength and the corresponding identified percentage of the perimeter of the building, wherein the location is determined to get best possible signal strength.
A recombinant arginase I for use in treating rheumatoid arthritis or multiple sclerosis in a human.
A hollow catheter with a channel and with a supply device for supplying the channel with a liquid, and having at least two pumps arranged at points of the channel distanced from one another, wherein at least one of the at least two pumps is a diaphragm pump, and having a control device which controls the pumps individually with respect to the generated pressure and/or the delivery rate, wherein a liquid pressure sensor is assigned to each pump or an electric sensor for detecting the power consumption of the pump, in particular the electrical consumption, is assigned to each pump or a flow rate sensor is assigned to each pump.
A filter media comprising: a filter substrate, and a fine fiber web disposed on the substrate, wherein the fine fiber web is a substantially continuous fine fiber layer; and wherein the fine fiber web comprises a fine fiber; and a spacer particulate which is an expandable microsphere, wherein the spacer particulate is dispersed throughout the fine fiber web. a filter substrate, and a fine fiber web disposed on the substrate, wherein the fine fiber web is a substantially continuous fine fiber layer; and wherein the fine fiber web comprises a fine fiber; and a spacer particulate which is an expandable microsphere, a fine fiber; and a spacer particulate which is an expandable microsphere, wherein the spacer particulate is dispersed throughout the fine fiber web.
A chest wall repair device comprising: two or more plate sections (102, 104, 202. 302) with at least a portion of one plate section configured to be affixed to a sternum or rib segment, and at least a portion of another plate section configured to be affixed to a sternum or rib segment on an opposing side of a sternal osteotomy, the plate sections having one or more receiving holes for receiving fixation members, the plate sections having a first surface, a second surface, and a flanking surface extending between the first and second surfaces; and a central elastomeric portion (108, 208, 308,) adhered to the two or more plate sections along the respective flanking surfaces, wherein the two or more plate sections are coupled together by the central elastomeric portion, wherein the first surface of each plate section includes a bevelled edge sloping towards the respective second surface, and the central elastomeric portion is adhered to the flanking surface and the bevelled edge of each plate section. two or more plate sections (102, 104, 202. 302) with at least a portion of one plate section configured to be affixed to a sternum or rib segment, and at least a portion of another plate section configured to be affixed to a sternum or rib segment on an opposing side of a sternal osteotomy, the plate sections having one or more receiving holes for receiving fixation members, the plate sections having a first surface, a second surface, and a flanking surface extending between the first and second surfaces; and a central elastomeric portion (108, 208, 308,) adhered to the two or more plate sections along the respective flanking surfaces, wherein the two or more plate sections are coupled together by the central elastomeric portion, wherein the first surface of each plate section includes a bevelled edge sloping towards the respective second surface, and the central elastomeric portion is adhered to the flanking surface and the bevelled edge of each plate section.
An audio-data transmitting system, comprising: a channel encoder, configured to receive and encode a bit signal for generating an encoding signal; a data modulator, configured to receive the encoding signal and modulate the encoding signal to become an audio signal whose frequency is on a frequency band, wherein the audio signal includes at least four different sub-audio signals, the frequency band includes at least four different sub-frequency bands of different frequencies, and the frequencies of the at least four sub-audio signals are on the at least four sub-frequency bands respectively, and the audio signal comprises a start-up audio signal prior to the four sub-audio signals, a frequency of the start-up audio signal is in a first spacing frequency band, and the first spacing frequency band is higher than one of the four sub-frequency bands and lower than other three of the four sub-frequency bands; and a speaker, configured to play the audio signal which includes the at least four different sub-audio signals simultaneously. a channel encoder, configured to receive and encode a bit signal for generating an encoding signal; a data modulator, configured to receive the encoding signal and modulate the encoding signal to become an audio signal whose frequency is on a frequency band, wherein the audio signal includes at least four different sub-audio signals, the frequency band includes at least four different sub-frequency bands of different frequencies, and the frequencies of the at least four sub-audio signals are on the at least four sub-frequency bands respectively, and the audio signal comprises a start-up audio signal prior to the four sub-audio signals, a frequency of the start-up audio signal is in a first spacing frequency band, and the first spacing frequency band is higher than one of the four sub-frequency bands and lower than other three of the four sub-frequency bands; and a speaker, configured to play the audio signal which includes the at least four different sub-audio signals simultaneously.
Aromatic polyetherol (b1) obtainable by condensation of aromatic alcohol (b11) and aldehyde (b12) wherein the aromatic alcohol (b11) comprises a mixture, consisting of at least one alkoxylation product (b111) of an aromatic alcohol, the alkoxylation product (b111) having a hydroxyl value of 110 to 500 mg KOH/g and an alkylated aromatic alcohol (b112) which may be alkoxylated and wherein the alkyl group is bonded to the aromatic ring, the alkyl group having 4 to 18 carbon atoms, wherein the molar ratio of the alcoxylation product (b111) of the aromatic alcohol and the alkylated aromatic alcohol (b112) is in the range of 5 : 1 to 2 : 1 and the average OH-functionality of the polyetherol (b1) is 2 to 8. wherein the molar ratio of the alcoxylation product (b111) of the aromatic alcohol and the alkylated aromatic alcohol (b112) is in the range of 5 : 1 to 2 : 1 and the average OH-functionality of the polyetherol (b1) is 2 to 8.
A method of manufacturing a wound filler for use in negative pressure wound therapy, the method comprising: creating a three-dimensional model of a wound filler based on a three-dimensional scan or model of a wound space to be treated with negative pressure wound therapy; and fabricating a bespoke wound filler based on the created three-dimensional scan or model of the wound filler, wherein the bespoke wound filler comprises at least a first plurality of identical repeating cells configured to collapse in a manner determined by the three-dimensional scan or model to account for attributes of the wound and for a negative pressure wound therapy treatment modality and wherein each repeating cell comprises straight sections or walls joined together by hinged sections. creating a three-dimensional model of a wound filler based on a three-dimensional scan or model of a wound space to be treated with negative pressure wound therapy; and fabricating a bespoke wound filler based on the created three-dimensional scan or model of the wound filler, wherein the bespoke wound filler comprises at least a first plurality of identical repeating cells configured to collapse in a manner determined by the three-dimensional scan or model to account for attributes of the wound and for a negative pressure wound therapy treatment modality and wherein each repeating cell comprises straight sections or walls joined together by hinged sections.
A grain bin having a grain level sensor system, the grain bin comprising a grain conveyor having an outlet for expelling grain into the grain bin, the grain level sensor system comprising: a floater adapted to sit on top of expelled grain from the grain conveyor, wherein the grain level in the grain bin is determined based on the height (h) of the floater above the outlet; characterised in that the floater is coupled with the outlet of the grain conveyor and the system comprises a linkage connecting the outlet and the floater, such that the floater is moveable relative to the outlet. a floater adapted to sit on top of expelled grain from the grain conveyor, wherein the grain level in the grain bin is determined based on the height (h) of the floater above the outlet; characterised in that the floater is coupled with the outlet of the grain conveyor and the system comprises a linkage connecting the outlet and the floater, such that the floater is moveable relative to the outlet.
Apparatus for a heating device for a vehicle, comprising a layer stack which, in a stacking direction , has: - a heating conductor layer , - an electrically conductive layer which forms a contact region , wherein a contour in a projection in the stacking direction of the electrically conductive layer is prespecified, in order to prevent a hotspot on the electrically conductive layer , wherein the contour is prespecified by a prespecified distance from a joint of the heating conductor layer , characterized in that a front side of the electrically conductive layer , which front side faces a central region of the heating conductor layer , has two convex sections which are each curved in the direction of the current flow which occurs during operation. - a heating conductor layer , - an electrically conductive layer which forms a contact region , wherein a contour in a projection in the stacking direction of the electrically conductive layer is prespecified, in order to prevent a hotspot on the electrically conductive layer , wherein the contour is prespecified by a prespecified distance from a joint of the heating conductor layer , characterized in that a front side of the electrically conductive layer , which front side faces a central region of the heating conductor layer , has two convex sections which are each curved in the direction of the current flow which occurs during operation.
An aircraft for performing observations in the stratosphere equipped with a telescope built in a fuselage of the aircraft with an initial angular mirror installed in an open part of the fuselage and a main mirror installed in a cylindrical part of the fuselage, wherein the open part of the fuselage represents an open observation cavity with a base made by a bottom arc section of the fuselage rigidly connected with a nose of the aircraft, the main mirror is permanently fixed at an end of the cylindrical part of the fuselage , at a tail of the aircraft, and the initial angular mirror is rotatably fixed to the nose , wherein an axis of rotation of the initial angular mirror overlaps a longitudinal axis of the aircraft and an optical axis of the main mirror , the bottom arc section of the fuselage has a recess for observation of the earth, and a lifting surface of the aircraft is releasably fixed to the cylindrical part of the fuselage .
A robotic carton unloader for unloading cartons in a carton pile, the robotic carton unloader movable across a floor, the robotic carton unloader comprising: a body ; a movable robotic arm attached to the body and comprising an end effector at an end thereof, the end effector configured to unload cartons from the carton pile; a conveyor system having a front portion, the conveyor system configured to convey cartons deposited thereon by the moveable robotic arm; and a lift attached to the body and the front portion of the conveyor system, the lift configured to move the front portion of the conveyor system relative to the floor, wherein the front portion of the conveyor system is a front-end shelf conveyor , characterized in that the body is a mobile body , and by a nose pitch actuator that is connected to the front-end shelf conveyor , wherein the nose pitch actuator is configured to impart tilting movements to the front-end shelf conveyor relative to the mobile body to allow the cartons placed on surface of the front-end shelf conveyor to move towards the robotic carton unloader and away from the carton pile. a body ; a movable robotic arm attached to the body and comprising an end effector at an end thereof, the end effector configured to unload cartons from the carton pile; a conveyor system having a front portion, the conveyor system configured to convey cartons deposited thereon by the moveable robotic arm; and a lift attached to the body and the front portion of the conveyor system, the lift configured to move the front portion of the conveyor system relative to the floor, wherein the front portion of the conveyor system is a front-end shelf conveyor , characterized in that the body is a mobile body , and by a nose pitch actuator that is connected to the front-end shelf conveyor , wherein the nose pitch actuator is configured to impart tilting movements to the front-end shelf conveyor relative to the mobile body to allow the cartons placed on surface of the front-end shelf conveyor to move towards the robotic carton unloader and away from the carton pile.
A control or regulating device , programmed to be activated so as to place a blood treatment apparatus , to which a patient is connected for extracorporeal blood treatment and comprising a blood pump , into a state in which the blood treatment session is temporarily interrupted by disconnection of the patient from the blood treatment apparatus until its resumption, - by initiating the reinfusion of the treated blood present in the extracorporeal blood circuit to the patient; - by initiating the circulation of at least one substitute liquid in at least one portion of the extracorporeal blood circuit by means of the blood pump ; - by initiating the interruption of the circulation of the substitute liquid; wherein the control or regulating device is further programmed: - for displaying an indication on a screen with instructions to connect the blood return line of the extracorporeal blood circuit with a substitute source and for displaying an indication on a screen with instructions to connect the patient after the circulation; and - for initiating the resumption of the blood treatment when the patient is reconnected to the blood treatment apparatus . - by initiating the reinfusion of the treated blood present in the extracorporeal blood circuit to the patient; - by initiating the circulation of at least one substitute liquid in at least one portion of the extracorporeal blood circuit by means of the blood pump ; - by initiating the interruption of the circulation of the substitute liquid; - for displaying an indication on a screen with instructions to connect the blood return line of the extracorporeal blood circuit with a substitute source and for displaying an indication on a screen with instructions to connect the patient after the circulation; and - for initiating the resumption of the blood treatment when the patient is reconnected to the blood treatment apparatus .
Mount for monitors , comprising a plurality of mounting portions for receiving at least one monitor each wherein the mounting portions comprise fastening elements for attaching to the reverse side of a monitor , wherein the mounting portions are further arranged on a support and are guided in sliding displacement thereon, characterised in that the mounting portions are guided on the support via rollers which are guided in guides and wherein the guides have an approximately C-shaped profile form in a sectional view perpendicular to their guiding direction (X) wherein the two arms of the C-shaped profile form of the guides each have bearing regions which are angled in a V-shape manner relative to one another and/or which are configured for form-fitting engagement with the profile of the guide rollers , wherein the guide rollers guided in the guides bear against the contact bearing regions.
Method for monitoring a brake of a motor vehicle, in particular a commercial motor vehicle, comprising the method step of: - reading out displacement signals from a wear sensor arranged on the brake , - providing a predefined stiffness characteristic map associated with the brake , in which state-dependent stiffness values are stored, and - calculating an application force F ist as a function of the displacement signals and the predefined stiffness characteristic map. - reading out displacement signals from a wear sensor arranged on the brake , - providing a predefined stiffness characteristic map associated with the brake , in which state-dependent stiffness values are stored, and - calculating an application force F ist as a function of the displacement signals and the predefined stiffness characteristic map.
Method for compensating the deflection (A) of a milling cutter (F) when machining a workpiece with a numerically controlled machine tool with a plurality of axes (X, Y), with the following steps: • in a first and second step (S1, S2) : executing a learning step in synchronous operation on a test workpiece (W) with a known geometry with the milling cutter (F) which is attached to a tool spindle, and in this context • in a third and fourth step (S3, S4): determining a relationship between a variable (P4), which is proportional to the torque (T) of a drive of the tool spindle, and the deflection (A) of the milling cutter (F) in the normal direction with respect to a surface of the test workpiece (W), wherein the deflection (A) is ascertained by comparing an actual contour of the test workpiece (W) with a setpoint contour , • in a fifth step (S5): storing the relationship for the milling cutter (F), • in a sixth step (S6): machining the workpiece with the milling cutter (F) in a synchronous operation, wherein an intervention angle of the milling cutter (F) during the machining of the workpiece (W) is between 0° and 140°, and in this context using the stored relationship for compensating the deflection (A) of the milling cutter (F) by applying a position correction, proportional to the variable (P4), to a setpoint position of the axes (X, Y) of the machine tool. • in a first and second step (S1, S2) : executing a learning step in synchronous operation on a test workpiece (W) with a known geometry with the milling cutter (F) which is attached to a tool spindle, and in this context • in a third and fourth step (S3, S4): determining a relationship between a variable (P4), which is proportional to the torque (T) of a drive of the tool spindle, and the deflection (A) of the milling cutter (F) in the normal direction with respect to a surface of the test workpiece (W), wherein the deflection (A) is ascertained by comparing an actual contour of the test workpiece (W) with a setpoint contour , • in a fifth step (S5): storing the relationship for the milling cutter (F), • in a sixth step (S6): machining the workpiece with the milling cutter (F) in a synchronous operation, wherein an intervention angle of the milling cutter (F) during the machining of the workpiece (W) is between 0° and 140°, and in this context using the stored relationship for compensating the deflection (A) of the milling cutter (F) by applying a position correction, proportional to the variable (P4), to a setpoint position of the axes (X, Y) of the machine tool.
A mask for breathing apparatus, the mask comprising: a seal for sealing against and around the face of a user; a mask inlet adapted to be placed in fluid communication with a supply of air, a mask outlet through which a user's exhaled breath is emitted, the mask outlet including a one-way exhalation valve including a valve closure member mounted on a valve seat , and an oronasal mask in fluid communication with the mask inlet and mask outlet and positioned to engage, in use, over the nose and mouth of the wearer, characterised in that said oronasal mask is at least partially formed of material which is at least partially translucent, and in that said mask includes illuminating means in optical communication with the oronasal mask such that said illuminating means illuminates said oronasal mask . a seal for sealing against and around the face of a user; a mask inlet adapted to be placed in fluid communication with a supply of air, a mask outlet through which a user's exhaled breath is emitted, the mask outlet including a one-way exhalation valve including a valve closure member mounted on a valve seat , and an oronasal mask in fluid communication with the mask inlet and mask outlet and positioned to engage, in use, over the nose and mouth of the wearer, characterised in that said oronasal mask is at least partially formed of material which is at least partially translucent, and in that said mask includes illuminating means in optical communication with the oronasal mask such that said illuminating means illuminates said oronasal mask .
Heat storage tank including at least one chemically inert solid heat storage material containing at least calcium carbonate particles, in which the calcium carbonate particles have a size distribution with a diameter d 50 of from 0.5 mm to 200 mm, preferably 1 mm to 100 mm, more preferentially from 2 mm to 50 mm and more preferentially from 2 mm to 40 mm, and also comprising at least one heat-transfer fluid chosen from synthetic oils, mineral oils, plant oils and mixtures thereof, said oils comprising at least one aromatic ring.