mhurhangee/patent-ind-claim-en huggingface dataset:
A remote system configured to communicate with a plurality of client building automation controllers , over a network, wherein each of the client building automation controllers is part of a corresponding client building automation system for controlling one or more building automation components of the client building automation system, and that services a corresponding client building, the remote system comprising: a communications port configured to operatively communicate with the plurality of client building automation controllers; and a controller operatively coupled to the communications port, characterised in that : in response to an alert indicated for one of the building automation systems, the controller is configured to determine whether the building automation system for which the alert has been indicated is associated with a particular building automation system contractor; and in response to determining that the building automation system for which the alert has been indicated is not associated with a particular building automation system contractor, the controller is configured to output via the communications port a listing of one or more building automation system contractors having a service area that overlaps a geographical location of the building automation system for which the alert has been indicated. a communications port configured to operatively communicate with the plurality of client building automation controllers; and a controller operatively coupled to the communications port, characterised in that : in response to an alert indicated for one of the building automation systems, the controller is configured to determine whether the building automation system for which the alert has been indicated is associated with a particular building automation system contractor; and in response to determining that the building automation system for which the alert has been indicated is not associated with a particular building automation system contractor, the controller is configured to output via the communications port a listing of one or more building automation system contractors having a service area that overlaps a geographical location of the building automation system for which the alert has been indicated. in response to an alert indicated for one of the building automation systems, the controller is configured to determine whether the building automation system for which the alert has been indicated is associated with a particular building automation system contractor; and in response to determining that the building automation system for which the alert has been indicated is not associated with a particular building automation system contractor, the controller is configured to output via the communications port a listing of one or more building automation system contractors having a service area that overlaps a geographical location of the building automation system for which the alert has been indicated.
A wedge looseness inspection device for a rotary electric machine in which, at an end in an axial direction(Z) of a stator core , a part having such a stepped shape that an inner diameter of the stator core increases stepwise toward an outer side in the axial direction (Z) is defined as a stepped-down portion , the wedge looseness inspection device being for inspecting looseness of a wedge pressing an inner circumferential surface of a conductor inserted into a slot of the stepped-down portion , toward an outer side in a radial direction (A) so as to be fixed, the wedge looseness inspection device comprising: an inspection unit including a wedge striking device having a tap hammer for striking the wedge , and a wedge vibration detection device for detecting vibration of the wedge due to the striking; and an attraction portion connected to the inspection unit via a connection member and being attractable to an inner circumferential surface of the stepped-down portion , wherein the attraction portion has, on an inner side in the axial direction (Z), a first attachment that allows adjustment of an attached position in the axial direction (Z) of the attraction portion , wherein the attraction portion is arranged to be positioned such that an inner side end surface in the axial direction (Z) of the attachment for adjusting the position in the axial direction (Z) is pressed against an outer side end surface in the axial direction (Z) of the step (d4) of the stepped-down portion . an inspection unit including a wedge striking device having a tap hammer for striking the wedge , and a wedge vibration detection device for detecting vibration of the wedge due to the striking; and an attraction portion connected to the inspection unit via a connection member and being attractable to an inner circumferential surface of the stepped-down portion , wherein the attraction portion has, on an inner side in the axial direction (Z), a first attachment that allows adjustment of an attached position in the axial direction (Z) of the attraction portion , wherein the attraction portion is arranged to be positioned such that an inner side end surface in the axial direction (Z) of the attachment for adjusting the position in the axial direction (Z) is pressed against an outer side end surface in the axial direction (Z) of the step (d4) of the stepped-down portion .
Plug connector that has contact elements that are divided into at least one signal contact element and at least one shielding contact element , and a first component having a first electrical circuit ground , characterised in that an ohmic resistor is provided that connects the shielding contact element to the first electrical circuit ground .
A drafting device comprising: a plurality of roller pairs adapted to draft a fiber bundle (S), each roller pair including a driver roller and a driven roller adapted to rotate following rotation of the driver roller ; a stepping motor (M14, M15) adapted to rotationally drive the driver roller of at least one roller pair among the roller pairs ; a receiving section adapted to receive setting of a drafting condition relating to the fiber bundle (S) to be drafted by the roller pairs ; and a control section adapted to control an operation of the stepping motor (M14, M15) by changing at least one among a magnitude of an electric current applied to the stepping motor (M14, M15), an excitation mode of the stepping motor (M14, M15), and a frequency of a pulse signal input into the stepping motor (M14, M15) such that drafting performed by the roller pairs is within a range that satisfies the drafting condition received by the receiving section characterized in that the control section is adapted to calculate, based on the drafting condition received by the receiving section , the frequency of the pulse signal to be input into the stepping motor (M14, M15), and to adjust the operation of the stepping motor (M14, M15) when the calculated frequency is within a predetermined range including a resonance frequency of the stepping motor (M14, M15). a plurality of roller pairs adapted to draft a fiber bundle (S), each roller pair including a driver roller and a driven roller adapted to rotate following rotation of the driver roller ; a stepping motor (M14, M15) adapted to rotationally drive the driver roller of at least one roller pair among the roller pairs ; a receiving section adapted to receive setting of a drafting condition relating to the fiber bundle (S) to be drafted by the roller pairs ; and a control section adapted to control an operation of the stepping motor (M14, M15) by changing at least one among a magnitude of an electric current applied to the stepping motor (M14, M15), an excitation mode of the stepping motor (M14, M15), and a frequency of a pulse signal input into the stepping motor (M14, M15) such that drafting performed by the roller pairs is within a range that satisfies the drafting condition received by the receiving section characterized in that the control section is adapted to calculate, based on the drafting condition received by the receiving section , the frequency of the pulse signal to be input into the stepping motor (M14, M15), and to adjust the operation of the stepping motor (M14, M15) when the calculated frequency is within a predetermined range including a resonance frequency of the stepping motor (M14, M15).
A light emitting device, comprising: a reflective layer having a prescribed pattern of at least one shape having prescribed thickness, width and periodicity; and a light emitting layer formed on the reflective layer , wherein the prescribed periodicity is 0.75λ/n to 5λ/n, where λ is the wavelength of the light emitted from the light emitting layer, and n is the refractive index of the light emitting layer, wherein the light emitting layer includes a first conductive type semiconductor layer on the prescribed pattern, an active layer on the first conductive type semiconductor layer , and a second conductive type semiconductor layer on the active layer ; and wherein the distance between the active layer and the reflective layer is shorter than the wavelength of the light emitted from the light emitting layer; and wherein the at least one shape has a width in a first direction which is different from a length, of the shape in a second direction and the at least one shape is repeated in the first direction and the second direction, the first direction being perpendicular to the second direction to form patterned layers that are spaced apart at a predetermined interval in the first direction, called first distance, and spaced apart at a predetermined interval in the second direction, called second distance, wherein the first and second distances are different from each other. a reflective layer having a prescribed pattern of at least one shape having prescribed thickness, width and periodicity; and a light emitting layer formed on the reflective layer , wherein the prescribed periodicity is 0.75λ/n to 5λ/n, where λ is the wavelength of the light emitted from the light emitting layer, and n is the refractive index of the light emitting layer, wherein the light emitting layer includes a first conductive type semiconductor layer on the prescribed pattern, an active layer on the first conductive type semiconductor layer , and a second conductive type semiconductor layer on the active layer ; and wherein the distance between the active layer and the reflective layer is shorter than the wavelength of the light emitted from the light emitting layer; and wherein the at least one shape has a width in a first direction which is different from a length, of the shape in a second direction and the at least one shape is repeated in the first direction and the second direction, the first direction being perpendicular to the second direction to form patterned layers that are spaced apart at a predetermined interval in the first direction, called first distance, and spaced apart at a predetermined interval in the second direction, called second distance, wherein the first and second distances are different from each other.
An array module for use in conjunction with a phased array system , comprising: an antenna ; a power source coupled to the antenna for supplying power to the antenna during an array transmit operation, wherein the array module is not connected to an external power source during the array transmit operation; and a control system configured to read a mounting location identifier from an identification circuit on a mounting location in an array structural frame when the array module is mounted therein; and wherein the mounting location identifier is associated with the mounting location to determine the array module's physical location within the array structural frame. an antenna ; a power source coupled to the antenna for supplying power to the antenna during an array transmit operation, wherein the array module is not connected to an external power source during the array transmit operation; and a control system configured to read a mounting location identifier from an identification circuit on a mounting location in an array structural frame when the array module is mounted therein; and wherein the mounting location identifier is associated with the mounting location to determine the array module's physical location within the array structural frame.
Method for deblocking pixel data processed with block-based digital video compression, including the steps: - receiving at least one first pixel adjacent to a block boundary transition; - providing a signal indicative of the brightness of the at least one first pixel, characterized by : - comparing the brightness signal with an upper brightness threshold and a lower brightness threshold; - conditionally filtering a plurality of adjacent pixels including the first pixel at the block boundary transition in response to the brightness comparison when the brightness signal is not lower than the lower brightness threshold and not greater than the upper brightness threshold, and omitting deblocking filtering when the brightness signal is lower than the lower brightness threshold or greater than the upper brightness threshold, so that deblocking is omitted for block boundary transitions that fall in a range of pixel values that are too dark or too bright to be differentiated by human vision. - receiving at least one first pixel adjacent to a block boundary transition; - providing a signal indicative of the brightness of the at least one first pixel, - comparing the brightness signal with an upper brightness threshold and a lower brightness threshold; - conditionally filtering a plurality of adjacent pixels including the first pixel at the block boundary transition in response to the brightness comparison when the brightness signal is not lower than the lower brightness threshold and not greater than the upper brightness threshold, and omitting deblocking filtering when the brightness signal is lower than the lower brightness threshold or greater than the upper brightness threshold, so that deblocking is omitted for block boundary transitions that fall in a range of pixel values that are too dark or too bright to be differentiated by human vision.
A hair cutting device comprising a cutting unit , the cutting unit comprising: a blade carrier carrying a cutting blade , the cutting blade comprising cutting teeth ; a guard blade comprising guard teeth ; wherein the cutter blade is arranged to reciprocate with respect to the guard blade such that during use of the device hair trapped between the guard blade teeth and the cutting teeth will be cut; wherein the guard blade is movable along the blade carrier relative to the cutting blade within a guard length range between a first guard position corresponding to a shortest hair cutting length of the cutting unit and a second guard position corresponding to the longest hair cutting length of the cutting unit; wherein the blade carrier comprises a stop configured to prevent movement of the guard blade past the first guard position and outside of the guard length range, thereby preventing the cutting length from being below the shortest cutting length; characterized in that the device further comprises a guard biasing element for biasing the guard blade to the first guard position. a blade carrier carrying a cutting blade , the cutting blade comprising cutting teeth ; a guard blade comprising guard teeth ; wherein the cutter blade is arranged to reciprocate with respect to the guard blade such that during use of the device hair trapped between the guard blade teeth and the cutting teeth will be cut; wherein the guard blade is movable along the blade carrier relative to the cutting blade within a guard length range between a first guard position corresponding to a shortest hair cutting length of the cutting unit and a second guard position corresponding to the longest hair cutting length of the cutting unit; wherein the blade carrier comprises a stop configured to prevent movement of the guard blade past the first guard position and outside of the guard length range, thereby preventing the cutting length from being below the shortest cutting length; characterized in that the device further comprises a guard biasing element for biasing the guard blade to the first guard position.
Telescopic sight with a housing , in which optical lenses are arranged along an optical path (OP), and with an adjusting wheel for adjusting a function, wherein the adjusting wheel is mounted so as to be rotatable relative to the housing about an axis of rotation (A), wherein the adjusting wheel has a first coupling means , on which an adjusting aid , which projects relative to the axis of rotation (A) radially over the outer circumference of the adjusting wheel , is releasably secured to a second coupling means , wherein the first coupling means has at least one groove and the second coupling means has at least one insertion element for inserting into the groove , and wherein the second coupling means has clamping means , with which the second coupling means can be fixedly clamped to the first coupling means , such that a firm force fit is achieved between the adjusting wheel and the adjusting aid .
A slide hinge comprising a slide hinge main body , a coupling case of synthetic resin, and a coupling piece for openably and closably connecting said slide hinge main body and said coupling case via hinge pins , wherein said coupling case has a coupling piece housing groove portion , a housing concave portion and attaching means , wherein said attaching means are composed of a pair of attaching case portions continuously provided integrally with both side portions of the coupling case , and diameter enlarging means provided in each of the attaching case portions , characterised in that said coupling case has a reinforcing frame body that has substantially the shape of U and comprises a curved and narrow base portion and a pair of slightly wider fixing portions provided in connection with and in parallel to the base portion ; hinge pin coupling holes are provided on the base portion , a pair of first locking pieces are provided on the base portion of the fixing portions ; a pair of second locking pieces (10f, lOf) are provided on their respective free end sides so as to protrude in a horizontal direction; a pair of first abutting portions for abutting a bottom portion of the coupling case , and second abutting portions are respectively provided; and said hinge pins are inserted in said hinge pin coupling holes , said pair of first locking pieces are inserted in locking holes of said coupling case, and said second locking pieces are inserted in saiel locking holes on the housing concave portion of said coupling case . wherein said coupling case has a coupling piece housing groove portion , a housing concave portion and attaching means , wherein said attaching means are composed of a pair of attaching case portions continuously provided integrally with both side portions of the coupling case , and diameter enlarging means provided in each of the attaching case portions , characterised in that said coupling case has a reinforcing frame body that has substantially the shape of U and comprises a curved and narrow base portion and a pair of slightly wider fixing portions provided in connection with and in parallel to the base portion ; hinge pin coupling holes are provided on the base portion , a pair of first locking pieces are provided on the base portion of the fixing portions ; a pair of second locking pieces (10f, lOf) are provided on their respective free end sides so as to protrude in a horizontal direction; a pair of first abutting portions for abutting a bottom portion of the coupling case , and second abutting portions are respectively provided; and said hinge pins are inserted in said hinge pin coupling holes , said pair of first locking pieces are inserted in locking holes of said coupling case, and said second locking pieces are inserted in saiel locking holes on the housing concave portion of said coupling case .
A heating, ventilation, or air conditioning (HVAC) system for a building , the HVAC system comprising: - a chiller configured to provide mechanical cooling for a cooling load in the building when the HVAC system operates in a mechanical cooling state; - a heat exchanger separate from the chiller and configured to provide free cooling for the cooling load in the building when the HVAC system operates in a free cooling state; and - a controller ; the system being characterised in that the controller is configured to: - predict outside air temperature for a plurality of future time steps; - determine whether the predicted outside air temperature will be less than a free cooling temperature threshold for at least a minimum free cooling time; and - transition the HVAC system from operating in the mechanical cooling state to operating in the free cooling state in response to a determination that the predicted outside air temperature will be less than the free cooling temperature threshold for at least the minimum free cooling time. - a chiller configured to provide mechanical cooling for a cooling load in the building when the HVAC system operates in a mechanical cooling state; - a heat exchanger separate from the chiller and configured to provide free cooling for the cooling load in the building when the HVAC system operates in a free cooling state; and - a controller ; the system being characterised in that the controller is configured to: - predict outside air temperature for a plurality of future time steps; - determine whether the predicted outside air temperature will be less than a free cooling temperature threshold for at least a minimum free cooling time; and - transition the HVAC system from operating in the mechanical cooling state to operating in the free cooling state in response to a determination that the predicted outside air temperature will be less than the free cooling temperature threshold for at least the minimum free cooling time. - predict outside air temperature for a plurality of future time steps; - determine whether the predicted outside air temperature will be less than a free cooling temperature threshold for at least a minimum free cooling time; and - transition the HVAC system from operating in the mechanical cooling state to operating in the free cooling state in response to a determination that the predicted outside air temperature will be less than the free cooling temperature threshold for at least the minimum free cooling time.