mhurhangee/ep-ind-claims huggingface dataset:
A method of employing an applicator instrument and force probe to noninvasively evaluate the muscle compartment of a limb suspected of compartment syndrome, the method comprising the step of applying the applicator instrument to the limb suspected of compartment syndrome, the applicator instrument acquiring a number of pressure and displacement data points, and characterized by the steps of: plotting the acquired data points and analyzing the plotted data using linear regression to calculate a regression curve, the regression curve constituting the best fit for the plotted data points and relating displacement to pressure, the regression curve having first, second and third segments; computing a mean square error of acquired pressure data points relative to pressure predicted by the regression curve over a given interval starting at the beginning of the acquired data; comparing the computed MSE to a predetermined value (value-1) and re-computing the MSE over an increased interval if the MSE is less than Value-1; designating the start of the second segment when MSE is equal to or exceeds Value-1; comparing MSE computed over a second interval starting at the start of the second segment to a predetermined value (Value-2) and re-computing the MSE over an increased interval if the MSE is less than Value-2; designating the end of the second segment when MSE is equal to or exceeds Value-2; calculating the slope of the second segment through a least squares linear regression analysis, the slope corresponding to pressure within the muscle compartment; designating the third segment of the regression curve, the third segment starting at the end of the second segment and extending until the end of the acquired data. plotting the acquired data points and analyzing the plotted data using linear regression to calculate a regression curve, the regression curve constituting the best fit for the plotted data points and relating displacement to pressure, the regression curve having first, second and third segments; computing a mean square error of acquired pressure data points relative to pressure predicted by the regression curve over a given interval starting at the beginning of the acquired data; comparing the computed MSE to a predetermined value (value-1) and re-computing the MSE over an increased interval if the MSE is less than Value-1; designating the start of the second segment when MSE is equal to or exceeds Value-1; comparing MSE computed over a second interval starting at the start of the second segment to a predetermined value (Value-2) and re-computing the MSE over an increased interval if the MSE is less than Value-2; designating the end of the second segment when MSE is equal to or exceeds Value-2; calculating the slope of the second segment through a least squares linear regression analysis, the slope corresponding to pressure within the muscle compartment; designating the third segment of the regression curve, the third segment starting at the end of the second segment and extending until the end of the acquired data.
A cooling system, comprising a compressor unit, a condenser, a first solenoid valve, a second solenoid valve, a first throttle valve and a frequency converter, wherein the second solenoid valve and the first throttle valve are connected in series and connected with the first solenoid valve in parallel; the compressor unit, the condenser, the first solenoid valve and the frequency converter are connected in series to form a first cooling loop; the compressor unit, the condenser, the second solenoid valve, the first throttle valve and the frequency converter are connected in series to form a second cooling loop; and the frequency converter is internally provided with a temperature detection module and a heat exchange module; the cooling system further comprising a cooling capacity adjustment module located between the compressor unit and the frequency converter to adjust the flow of the refrigerant passing through the frequency converter; and the cooling capacity adjustment module comprises at least one cooling capacity adjustment assembly, and each cooling capacity adjustment assembly comprises an electronic expansion valve; wherein the cooling system is configured such that if the temperature detection module detects that the temperature in the frequency converter is lower than a switching temperature T, the first solenoid valve is opened, the second solenoid valve is closed, the first cooling loop is opened, and the second cooling loop is closed; and wherein the cooling system is configured such that if the temperature detection module detects that the temperature in the frequency converter is equal to or higher than the switching temperature T, the first solenoid valve is closed, the second solenoid valve is opened, the first cooling loop is closed, and the second cooling loop is opened. the cooling system further comprising a cooling capacity adjustment module located between the compressor unit and the frequency converter to adjust the flow of the refrigerant passing through the frequency converter; and the cooling capacity adjustment module comprises at least one cooling capacity adjustment assembly, and each cooling capacity adjustment assembly comprises an electronic expansion valve; wherein the cooling system is configured such that if the temperature detection module detects that the temperature in the frequency converter is lower than a switching temperature T, the first solenoid valve is opened, the second solenoid valve is closed, the first cooling loop is opened, and the second cooling loop is closed; and wherein the cooling system is configured such that if the temperature detection module detects that the temperature in the frequency converter is equal to or higher than the switching temperature T, the first solenoid valve is closed, the second solenoid valve is opened, the first cooling loop is closed, and the second cooling loop is opened.
Welding head for a strapping machine, in particular for longitudinally strapping a product, comprising - strap clamps (5, 6.1, 6.2), - strap manipulators (7, 8), - cutting devices for the strap, - a welding device for the strap welding sections (15, 16), which overlap in the welding head, and - a counter pressure plate, which can be inserted into the strapping loop, for supporting the overlapping strap welding sections (15, 16), at least during the welding thereof, characterized in that - the front edge of the counter pressure plate, said edge facing in the insertion direction and moving in the lead during insertion, is bevelled to form a structure similar to a cutting edge. - strap clamps (5, 6.1, 6.2), - strap manipulators (7, 8), - cutting devices for the strap, - a welding device for the strap welding sections (15, 16), which overlap in the welding head, and - a counter pressure plate, which can be inserted into the strapping loop, for supporting the overlapping strap welding sections (15, 16), at least during the welding thereof, - the front edge of the counter pressure plate, said edge facing in the insertion direction and moving in the lead during insertion, is bevelled to form a structure similar to a cutting edge.
An elevator control device having a non-service function of prohibiting the registration of call to each of floors of a building, comprising: a non-service level setting part which sets two non-service levels of a first non-service level and a second non-service level for each of the floors; a call registration part (3, 21a, 21b) for a user to perform registration operation of call to a desired floor; a call registration control part (12, 22a, 22b) which, when the call registration part (3, 21a, 21b) is operated, in the case where the first non-service level or the second non-service level has been set for the desired floor, prohibits a registration of call to that floor, and in the case where neither the first non-service level nor the second non-service level has been set for the desired floor, performs the registration of call to that floor, wherein the non-service level setting part can set the non-service level separately for upward hall call, downward hall call, or car call, characterized in that the elevator control device further comprises a temporary cancel signal input device for inputting a temporary cancel signal and in that even if the first non-service level has been set for the desired floor, in the case where the temporary cancel signal designating that floor has been inputted by means of the temporary cancel signal input device, when the registration operation of call to that floor is performed within predetermined time from when the temporary cancel signal is inputted, the call registration control part (12, 22a, 22b) performs the registration of call to that floor. a non-service level setting part which sets two non-service levels of a first non-service level and a second non-service level for each of the floors; a call registration part (3, 21a, 21b) for a user to perform registration operation of call to a desired floor; a call registration control part (12, 22a, 22b) which, when the call registration part (3, 21a, 21b) is operated, in the case where the first non-service level or the second non-service level has been set for the desired floor, prohibits a registration of call to that floor, and in the case where neither the first non-service level nor the second non-service level has been set for the desired floor, performs the registration of call to that floor, wherein the non-service level setting part can set the non-service level separately for upward hall call, downward hall call, or car call, characterized in that the elevator control device further comprises a temporary cancel signal input device for inputting a temporary cancel signal and in that even if the first non-service level has been set for the desired floor, in the case where the temporary cancel signal designating that floor has been inputted by means of the temporary cancel signal input device, when the registration operation of call to that floor is performed within predetermined time from when the temporary cancel signal is inputted, the call registration control part (12, 22a, 22b) performs the registration of call to that floor.
A negative pressure pump comprising: an electrically insulative casing that is formed in a tubular shape, an axial direction one end of the casing being closed off by a cap body; an electrically conductive rotary shaft that is disposed in the casing, the rotary shaft being mechanically and electrically connected to an earthed power source, the rotary shaft being rotated by power being transmitted from the power source, and a rotation center of the rotary shaft being disposed to be offset relative to a center of the casing; and an electrically conductive vane that is disposed in the casing, the vane being supported at the rotary shaft to freely reciprocate in a direction orthogonal to the rotary shaft and being electrically connected to the power source via the rotary shaft, the vane rotating integrally with the rotary shaft and end portions of the vane sliding over an inner wall face of the casing, and the vane dividing the interior of the casing into a plurality of spaces and generating negative pressure, characterized in that the vane is wholly formed of an electrically conductive resin. an electrically insulative casing that is formed in a tubular shape, an axial direction one end of the casing being closed off by a cap body; an electrically conductive rotary shaft that is disposed in the casing, the rotary shaft being mechanically and electrically connected to an earthed power source, the rotary shaft being rotated by power being transmitted from the power source, and a rotation center of the rotary shaft being disposed to be offset relative to a center of the casing; and the rotary shaft being mechanically and electrically connected to an earthed power source, the rotary shaft being rotated by power being transmitted from the power source, and a rotation center of the rotary shaft being disposed to be offset relative to a center of the casing; and an electrically conductive vane that is disposed in the casing, the vane being supported at the rotary shaft to freely reciprocate in a direction orthogonal to the rotary shaft and being electrically connected to the power source via the rotary shaft, the vane rotating integrally with the rotary shaft and end portions of the vane sliding over an inner wall face of the casing, and the vane dividing the interior of the casing into a plurality of spaces and generating negative pressure, characterized in that the vane is wholly formed of an electrically conductive resin. the vane being supported at the rotary shaft to freely reciprocate in a direction orthogonal to the rotary shaft and being electrically connected to the power source via the rotary shaft, the vane rotating integrally with the rotary shaft and end portions of the vane sliding over an inner wall face of the casing, and the vane dividing the interior of the casing into a plurality of spaces and generating negative pressure, characterized in that the vane is wholly formed of an electrically conductive resin.
Brake carrier for a disk brake with a brake disk, wherein the brake carrier has a clamping-side bridge strut on a clamping side of the disk brake and a reaction-side bridge strut on a reaction side of the disk brake arranged parallel to a brake carrier axis, wherein the clamping-side bridge strut and the reaction-side bridge strut are connected together via a first connecting web at a first end of the brake carrier, and the clamping-side bridge strut and the reaction-side bridge strut are connected together via a second connecting web at a second end of the brake carrier, and the brake carrier comprises a brake pad receiving side provided with brake carrier horns (12, 12a, 12b, 12c) and a brake carrier underside opposite the brake pad receiving side, characterized in that the clamping-side bridge strut has a first chamfer on the brake carrier underside of the brake carrier and the first chamfer of the clamping-side bridge strut is arranged so as to be continuous starting from the third brake carrier horn to the fourth brake carrier horn, and the reaction-side bridge strut has a second chamfer on the brake carrier underside of the brake carrier and the second chamfer of the reaction-side bridge strut is arranged so as to be continuous starting from the first brake carrier horn to the second brake carrier horn.
Robot vacuum cleaner comprising a mobile base and a hand vacuum cleaner, with first reception means being arranged between the mobile base and the hand vacuum cleaner to enable their engagement into one another in order to vacuum clean a surface by means of the hand vacuum cleaner during displacements of the mobile base on said surface, said hand vacuum cleaner being removable from said mobile base for the individual use thereof, characterised in that the hand vacuum cleaner comprises a body and a suction tube provided at its end with a first nozzle, the first reception means comprising a housing shaped like a funnel communicating with a suction inlet under the mobile base by means of a second nozzle, the first and second nozzles being configured to fit into one another when the body and the suction tube are engaged in the housing, the shapes of the body and of the suction tube fitting with those of the housing.
An iron-based soft magnetic powder for use in a dust core, comprising: an iron-based soft magnetic matrix powder; and a phosphate conversion coating present on a surface of the iron-based soft magnetic matrix powder, wherein: the phosphate conversion coating comprises nickel element in a content of from 0.001 percent by mass to 0.05 percent by mass based on the total amount of the iron-based soft magnetic powder; and the phosphate conversion coating has an aluminum content of equal to or less than an aluminum content in the iron-based soft magnetic matrix powder. an iron-based soft magnetic matrix powder; and a phosphate conversion coating present on a surface of the iron-based soft magnetic matrix powder, the phosphate conversion coating comprises nickel element in a content of from 0.001 percent by mass to 0.05 percent by mass based on the total amount of the iron-based soft magnetic powder; and the phosphate conversion coating has an aluminum content of equal to or less than an aluminum content in the iron-based soft magnetic matrix powder.
A multi-function flashlight 1, comprising: a flashlight body; an optic having a focusing portion and a non-focusing portion; a centrally-disposed, main LED positioned to direct light through the focusing portion; one or more additional LEDs positioned peripherally around the main LED to direct light through the non-focusing portion; a power source disposed within the flashlight body adapted to provide power to the main and additional LEDs; and a first control configured to selectively provide power to the main LED; characterised in that it further comprises a control for adjusting the main beam between broad and narrow beams, the control comprising a bezel that is forwardly and rearwardly slidably mounted to a front portion of the flashlight body, wherein the optic is disposed in the bezel, and the main LED is mounted to the flashlight body so that sliding the bezel forwardly and rearwardly moves the optic away from and toward the main LED, thereby narrowing and broadening the main beam, respectively; and wherein the bezel that is rotatably mounted to the flashlight body, and rotation of the bezel with respect to the flashlight body shifts power selectively between the additional LEDs. a flashlight body; an optic having a focusing portion and a non-focusing portion; a centrally-disposed, main LED positioned to direct light through the focusing portion; one or more additional LEDs positioned peripherally around the main LED to direct light through the non-focusing portion; a power source disposed within the flashlight body adapted to provide power to the main and additional LEDs; and a first control configured to selectively provide power to the main LED; characterised in that it further comprises a control for adjusting the main beam between broad and narrow beams, the control comprising a bezel that is forwardly and rearwardly slidably mounted to a front portion of the flashlight body, wherein the optic is disposed in the bezel, and the main LED is mounted to the flashlight body so that sliding the bezel forwardly and rearwardly moves the optic away from and toward the main LED, thereby narrowing and broadening the main beam, respectively; and wherein the bezel that is rotatably mounted to the flashlight body, and rotation of the bezel with respect to the flashlight body shifts power selectively between the additional LEDs.
A coloured effect pigment, comprising - a substrate made of aluminium or an aluminium alloy which is optionally coated with one or more passivation layers, and - an aluminium-doped iron oxide layer. - a substrate made of aluminium or an aluminium alloy which is optionally coated with one or more passivation layers, and - an aluminium-doped iron oxide layer.
A casting process for an alloy component comprising: casting a ceramic core into a flexible core mold, the flexible core mold defining a geometry of an interior passageway of the alloy component and a first cooperating alignment feature; casting a ceramic shell in at least two sections (40, 42, 64, 68) into respective flexible shell molds (24', 24"), the flexible shell molds collectively defining an external geometry of the alloy component and a second cooperating alignment feature; forming a ceramic casting vessel by assembling the ceramic core within the ceramic shell sections while aligning the first and second cooperating alignment features; casting alloy into the ceramic casting vessel; and removing the ceramic casting vessel to reveal the alloy component having the interior passageway, wherein the casting process further comprises casting any one of the flexible core mold or flexible shell molds with a process comprising: forming a master mold to define a first region comprising relatively low precision features; incorporating a mold insert into the master mold to define a second region comprising relatively high precision features having dimensional tolerances smaller than those of the relatively low precision features; and casting the any one of the flexible molds into the joined master mold and mold insert. casting a ceramic core into a flexible core mold, the flexible core mold defining a geometry of an interior passageway of the alloy component and a first cooperating alignment feature; casting a ceramic shell in at least two sections (40, 42, 64, 68) into respective flexible shell molds (24', 24"), the flexible shell molds collectively defining an external geometry of the alloy component and a second cooperating alignment feature; forming a ceramic casting vessel by assembling the ceramic core within the ceramic shell sections while aligning the first and second cooperating alignment features; casting alloy into the ceramic casting vessel; and removing the ceramic casting vessel to reveal the alloy component having the interior passageway, forming a master mold to define a first region comprising relatively low precision features; incorporating a mold insert into the master mold to define a second region comprising relatively high precision features having dimensional tolerances smaller than those of the relatively low precision features; and casting the any one of the flexible molds into the joined master mold and mold insert.